May 13, 2024  
2023-2024 College Catalog 
    
2023-2024 College Catalog [ARCHIVED CATALOG]

Course Descriptions


Legend for Courses

HC/HN: Honors Course  IN/IH: Integrated lecture/lab  LB: Lab  LC: Clinical Lab  LS: Skills Lab  WK: Co-op Work
SUN#: is a prefix and number assigned to certain courses that represent course equivalency at all Arizona community colleges and the three public universities. Learn more at www.aztransfer.com/sun.

 

Art

  
  • ART 140 - Photography I

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Introduction to black and white photography as an art form with an emphasis on fundamental techniques of the camera and wet darkroom. Includes manual camera competencies, manual film development, basic darkroom procedures, portfolio building, visual literacy and critical analysis, and the role of photography.

    Recommendation: Completion of ART 100  before enrolling in this course. 
    Information: Photographic equipment, including 35mm cameras, are available for check out during the semester.
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Analyze how photography has been used as a visual communication tool across cultures and continents. 
    2. Demonstrate manual operation of a 35mm camera.
    3. Demonstrate processing films and printing full tonal range gelatin silver prints in wet darkroom.
    4. Create a visual and technical photographic portfolio.

    Outline:
    1. History of Photography
      1. Identify the international artistic explorations of photography since its 1826 invention
      2. Cultivate cultural and global awareness through analyzing photographic projects that explore important and relevant themes
    2. Manual Camera Competencies
      1. Aperture
        1. Depth of field
        2. Variations and controls
      2. Shutter speeds
        1. Motion
        2. Panning and controls
      3. Light meter, exposure
      4. ISO
      5. Lenses
    3. Manual Film Development
      1. Types of film
      2. Chemical procedures
      3. Time and temperature
      4.  Printing black and white negatives
        1. Paper surfaces and tones
        2. Handling film
      5.  Contrast filters
      6.  Burning and dodging
    4. Portfolio Building
      1. Assignments demonstrating technical competencies
      2. Assignments demonstrating visual competencies
      3. Presentation
        1. Dry mounting
        2. Spotting


    Effective Term:
    Full Academic Year 2020/2021
  
  • ART 141 - Photography II

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Principles and processes of intermediate black and white photography. Includes use of various types of camera formats, development of film, creating a series, individual analog darkroom space, advanced analog and digital darkrooms techniques, portfolio production, exhibition presentation, verbalization of visual perceptions, and critical analysis of black and white photography in historical and contemporary practices.

    Prerequisite(s): ART 140  
    Information: The prerequisite may be waived with the consent of the instructor.
    Button linking to AZ Transfer course equivalency guide  



    Course Learning Outcomes
    1. Demonstrate the use of multiple camera formats and skills in film development system. 
    2. Demonstrate printing skills in analog and digital darkrooms.
    3. Demonstrate ability in critical analysis and visual literacy.
    4. Create a conceptual photographic portfolio.

    Outline:
    1. Use of Various Types of Camera Formats and Skill in Film Development System
      1. Small, 35mm
      2. Medium, 2 ¼”
      3. Development of a minimum of ten (10) rolls of film manually processed and proofed
    2. Printing skills in darkrooms 
      1. In analog darkroom
        1. Burning and dodging with filters
        2. Contrast manipulation
        3. Experimentation with paper surfaces and tones
        4. Making fiber-based prints
        5. Toning
      2. In digital darkroom
        1. Scanning
        2. Image manipulation and alteration
        3. Color management
        4. Paper profiles
        5. Making digital black and white prints
    3. Critical Analysis and verbalization of visual perception
      1. Group and individual critiques
      2. Lectures and reading discussions cover the roles of photography, its aesthetic quality, and the communication motives behind making a photograph in the historical context of visual culture
      3. Attending artist lectures

     

    IV.   Creating a series

    1. Contact sheet
    2. Twenty work prints (minimum)
    3. Individual conference
    4. Ten archival fine art prints (minimum)

     


    Effective Term:
    Fall 2022

  
  • ART 147 - Alternative Processes in Photography

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Designed for the advanced image maker interested in expanding knowledge of alternative photographic processes. Includes enlarging negatives for contact printing, nineteenth century processes, twentieth century processes, darkroom materials, and artwork presentation.

    Prerequisite(s): ART 128  or ART 140  
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Create enlarged continuous tone digital negatives specific to each process.
    2. Demonstrate the use of the following nineteenth century processes: cyanotype, Van Dyke, salt paper printing, gum dichromate, and palladium.
    3. Demonstrate the use of the following twentieth century processes: instant dye transfer, instant emulsion, transfer, and printing on fabric.
    4. Develop a non-silver dark room.
    5. Prepare art work for exhibition.

    Outline:
    1. Enlarging Negatives for Contact Printing
      1. Digital option
      2. Continuous tone, orthochromatic
    2. Nineteenth Century Processes
      1. Cyanotype
      2. Van Dyke
      3. Salt paper
      4. Gum dichromate
      5. Platinum/palladium
    3. Twentieth Century Processes
      1. Instant dye transfer
      2. Instant emulsion transfer
      3. Photo emulsion
    4. Darkroom Materials
      1. Exposure light sources
      2. Contact printing frame options
      3. Printing surfaces, paper, natural fiber
      4. Purchase materials and supplies nationally
    5. Artwork Presentation
      1. Mounting
      2. Framing


    Effective Term:
    Fall 2013
  
  • ART 160 - Ceramics I

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Introduction to ceramics. Includes beginning handbuilding techniques and methods of fabrication, wheel throwing and trimming, projects involving formal elements, beginning ceramic techniques, reduction firing, raku firing, ceramic artist research, discussion, and exploration topics.

    Recommendation: Completion of ART 100  before enrolling in this course or concurrent enrollment. If any recommended course is taken, see a financial aid or Veteran’s Affairs advisor to determine funding eligibility as appropriate.
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Demonstrate the ability to perform various handbuilding techniques and other methods of fabrication at the beginning level.
    2. Practice wheel throwing and trimming techniques.
    3. Complete several projects that involve the elements of scale, texture, form, and functionality.
    4. Produce ceramic art using basic techniques.
    5. Demonstrate the practice and application of chemical change through cone 10 reduction firing.
    6. Produce a raku fire piece using specified glazing and cooling reduction techniques and processes.
    7. Research, write, and present information on an individual ceramic artist.
    8. Discuss various topics related to the design, aesthetics and history of ceramic art.

    Outline:
    1. Beginning Handbuilding Techniques/Methods of Fabrication
      1. Pinch
      2. Coil
      3. Slab
    2. Wheel Throwing and Trimming
    3. Projects Involving Formal Elements
      1. Scale
      2. Texture
      3. Form
      4. Functionality
    4. Beginning Ceramic Techniques
      1. Glazing
        1. Chemical change in oxidation
        2. Chemical change in reduction
      2. Firing temperatures
    5. Cone 10 Reduction Firing
      1. Oxidation
      2. Reduction
    6. Raku Firing
    7. Ceramic Artist Research
    8. Ceramic Discussion/Exploration Topics
      1. Design
      2. Aesthetics
      3. History of ceramic art


    Effective Term:
    Fall 2012
  
  • ART 170 - Metalwork I: Jewelry

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Exploration of the basic techniques and design approaches used in the fabrication of jewelry and other metalwork. Includes information and background on historical and contemporary metalwork and jewelry, and techniques and processes of jewelry and metalwork.

    Recommendation: Completion of ART 100 before enrolling in this course. If any recommended course is taken, see a financial aid or Veteran’s Affairs advisor to determine funding eligibility as appropriate.
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Demonstrate design skills and discuss the aesthetics of contemporary and historical jewelry and metalwork.
    2. Demonstrate proper use of basic jewelry tools and equipment.
    3. Describe and discuss the functional limitations of jewelry making.
    4. Describe, discuss, and apply safety and health procedures related to tools and materials.

    Outline:
    1. Information and Background on Historical and Contemporary Metalwork and Jewelry
      1. Metal works from antiquity
      2. Industrial and modern design
      3. Contemporary metal work design and practices
    2. Techniques and Processes of Jewelry and Metalwork
      1. Cold joining
      2. Soldering
      3. Piercing and sawing
      4. Forming
      5. Surface treatment
      6. Stone setting
      7. Finishing
    3. Functional Aspects in Jewelry Making
      1. Wearability
      2. Reactivity of metals
    4. Instruction in All Aspects of Safety and Health Procedures
      1. Personal protective equipment
      2. Equipment procedures
      3. Lab hygiene and waste disposal procedures


    Effective Term:
    Full Academic Year 2020/2021
  
  • ART 210 - Drawing II

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Continuation of ART 110 . Includes strengthening of drawing and critical thinking skills. Also includes intermediate drawing and design problems; intermediate use of materials and techniques; perceptual skill and personal development; critique process; engagement and analysis of professional art events or galleries; and portfolio creation.

    Prerequisite(s): ART 110  
    Information: Prerequisite(s) may be waived with consent of instructor.
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Apply design elements and principles to drawing to solve graphic problems.
    2. Further explore and apply diverse drawing media, techniques and observational skills to various subjects in still life, nature studies, figure drawing, and personal and cultural iconography.
    3. Discuss and demonstrate technical and expressive problems and processes of seeing and communicating visual ideas using drawing media.
    4. Evaluate and analyze work of self and others utilizing critical thinking and appropriate terminology through oral and written critique processes.
    5. Observe and critique professional art events and/or gallery exhibitions via online or local venues using many sophisticated and accurate art terminology.
    6. Produce a portfolio of drawings in a variety of media and subjects from observation and imagination.

    Outline:
    1. Intermediate Drawing and Design Problems
      1. Line
      2. Value
      3. Texture
      4. Color
      5. Volume
      6. Contrast
      7. Space
      8. Composition
      9. Expressive and contextual invention
    2. Intermediate Use of Materials and Techniques
      1. Materials
        1. Dry media
        2. Wet media
        3. Mixed media
        4. Digital media
    3. Intermediate drawing methods, approaches and techniques
      1. Mark making
      2. Measurement strategies
      3. Value/volume modeling techniques
      4. Perspective
      5. Mapping
      6. Identify resources to develop imagery
    4. Perceptual Skill and Personal Development
      1. Demonstrate observational skills: perspective and proportional properties
      2. Demonstrate intermediate diagrammatic and/or mapping communication with personal invention
      3. Identify and choose a variety of appropriate drawing materials and approaches indication development of personal expression
    5. Critique Process
      1. Participate in individual and group critiques using visual terminology
      2. Critically evaluate personal work and work of classmates
      3. Utilize and further develop analytical and critical thinking skills
    6. Engagement and Analysis of Professional Art Events or Galleries
      1. Visit online, local or regional galleries, art events and/or museums
      2. Complete written analysis per instructor guidelines
      3. Address contemporary and/or historical works of art
    7. Portfolio Creation
      1. Complete portfolio of twelve (12) finished drawings
      2. Individual and group review of work


    Effective Term:
    Fall 2013
  
  • ART 212 - Printmaking I

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Introduction to basic aesthetics and techniques of printmaking. Includes intaglio techniques, relief printing, monotype techniques, and final presentation.

    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Demonstrate the use and/or techniques in intaglio printmaking: drypoint and/or engraving, hard ground etching, soft ground etching, and aquatint etching.
    2. Demonstrate the use and/or technique relief printing from wood or linoleum, or constructed materials.  .
    3. Demonstrate the use and/or technique of monotype printing. 
    4. Demonstrate the ability to mat and frame print(s) and indicate edition. 

    Outline:
    1. Intaglio Techniques
      1. Drypoint
      2. Hard ground
      3. Soft ground
      4. Aquatint
    2. Relief Printing
      1. Wood and/or linoleum and/or sintra substrates
      2. Working with different gouges
      3. Constructed surfaces
    3. Monotype Techniques
      1. Rolling, wiping, inking
      2. Xerox or citris-solve or gel medium or other transfer
    4. Final Presentation
      1. Edition(s)
      2. Matting
      3. Framing


    Effective Term:
    Fall 2016
  
  • ART 213 - Life Drawing I

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Drawing of human figures using the two-dimension concept as a graphic vehicle of expression. Includes gesture and contour drawing, varied time length poses, drawing problems, variety of materials, and individual and group critiques of work.

    Recommendation: Completion of ART 110  before enrolling in this course. If any recommended course is taken, see a financial aid or Veteran’s Affairs advisor to determine funding eligibility as appropriate.
    Button linking to AZ Transfer course equivalency guide  



    Course Learning Outcomes
    1. Demonstrate drawing processes using the human figure as subject via gesture drawing.
    2. Develop perceptual skills of positive and negative shapes through contour drawing of the figure.
    3. Display skill sets of perception through varied time-length poses.
    4. Analyze and address drawing problems of anatomical proportions and compositional issues.
    5. Develop abilities to work with a variety of traditional and non-traditional materials.
    6. Contribute to individual and group critiques.

    Outline:
    1. Gesture Drawing of the Figure
    2. Contour Drawing of the Figure
    3. Varied Time-Length Poses – From One Minute Poses to 5 Hour Poses
    4. Drawing Problems
      1. Line
      2. Body proportions and anatomical relationships
      3. Compositional elements
      4. Figure ground relationships
      5. Value
      6. Negative space
    5. Variety of Materials
      1. Charcoal
      2. Ink
      3. Graphite
      4. Conte
      5. Crayon
      6. Non traditional

    VI.    Individual and Group Critiques of Work


    Effective Term:
    Fall 2015

  
  • ART 214 - Printmaking II

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Continuation of ART 212 . Includes advanced problems in aesthetics and techniques of intaglio projects and techniques, relief printing, monotype techniques, and multi-process and alternative approaches to printmaking.

    Prerequisite(s): ART 212  
    Button linking to AZ Transfer course equivalency guide  



    Course Learning Outcomes
    1. Demonstrate expanded use of intaglio processes (hard ground, soft ground, drypoint, and aquatint).
    2. Demonstrate expanded relief-printing process.
    3. Demonstrate expanded use of monotype printing with addition of color, overlays, and Xerox and/or other transfers.
    4. Demonstrate multi-process printing.

    Outline:
    1. Intaglio Projects and Techniques: Multi-Plate and Multi-Color Possibilities Expanded
      1. Drypoint
      2. Hard ground
      3. Soft ground
      4. Aquatint
      5. Edition(s)
    2. Relief Printing: Multi-Plate and Multi-Color Possibilities
      1. Wood and/or linoleum and/or sintra substrates
      2. Working with different gouges
      3. Constructed surfaces

    III.    Monotype Techniques: Multi-Plate and Multi-Color Possibilities

    A.     Rolling, wiping, inking

    B.     Xerox and/or citris-solve and/or gel medium and/or offset transfers

    IV. Multi-Process and Alternative Approaches to Printmaking


    Effective Term:
    Spring 2017

  
  • ART 215 - Painting I

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Introduction to the fundamentals of oil painting. Includes basic painting techniques and processes, manipulation of compositional elements and formal and contemporary pictorial organization in various genres, surface preparation, personal direction and artistic expression, and health and safety in the painting studio.

    Recommendation: Completion of ART 115  before enrolling in this course. If any recommended course is taken, see a financial aid or Veteran’s Affairs advisor to determine funding eligibility as appropriate.
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Implement basic painting techniques and processes.
    2. Develop compositional elements in oil or acrylic paint which includes formal pictorial organization.
    3. Demonstrate each of the following: monochromatic and polychromatic painting; landscape/architectural painting; figure painting; portrait painting which can address the illusion of mass and either atmospheric space and/or linear perspective.
    4. Explore preparation of various matrixes, including the stretching of canvas, and panel and paper preparation.
    5. Demonstrate artistic development by using observational and/or photographic resources, participating in individual and group critiques, and exploring and developing personal direction.
    6. Discuss health and safety standards applied in a painting studio.

    Outline:
    1. Basic Painting Techniques and Processes
      1. Glazing, grisaille, impasto
      2. Indirect: underpainting/overpainting, layering, glazing
      3. Direct: alla prima, impasto, wet-in-wet
      4. Palette/color mixing techniques
    2. Development of Compositional Elements and Formal Pictorial Organization
      1. Line, shape, texture
      2. Color and value, modeling with paint
      3. Linear and atmospheric space
    3. Demonstrate the Manipulation of Pictorial Elements in Genres
      1. Still life and viewpoint
      2. Landscape/architectural space: atmospheric and linear perspective
      3. The body and portrait: the depiction of mass and context
      4. Art historical references and movements
    4. Surface Preparation
      1. Paper preparation techniques
      2. Board preparation techniques
      3. How to build a canvas and other preparation techniques
    5. Artistic Development
      1. Incorporate critical thinking into creative process
      2. Observe, examine, and discover to create with personal direction
    6. Health and Safety in the Painting Studio
      1. Toxins, pigments, mediums and solvents
        1. Inhalation
        2. Ingestion
        3. Exposure to skin
      2. Sink maintenance
      3. Easel maintenance
      4. Paint cabinet maintenance


    Effective Term:
    Fall 2016
  
  • ART 216 - Screenprinting I

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Introduction to screenprinting using water base and inks. Includes screen construction, direct stencil techniques, photographic techniques, one-color printing, multicolor printing and registration, overview of the types of printing papers, and final presentation.

    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Demonstrate the use and/or technique of screen construction in screenprinting.
    2. Demonstrate the use and/or technique of the stencil in screenprinting.
    3. Demonstrate the use and/or technique of photo film in screenprinting.
    4. Demonstrate the use and/or technique of printing with one color in screenprinting.
    5. Demonstrate the use and/or technique of printing with multicolor in screenprinting.
    6. Demonstrate the use and/or technique of registration in screenprinting.
    7. Demonstrate the use and/or technique of printing on paper or other materials in screenprinting.
    8. Mat and frame and indicate edition of print(s).

    Outline:
    1. Screen Construction and/or Use of Squeegie
    2. Direct Stencil Techniques
      1. Paper stencils method
      2. Litho-crayon/glue/drawing fluid method
      3. Screen filler/direct blockout/Tusche method
      4. Cut film method
    3. Photographic Techniques
      1. Photographic emulsion method
      2. Photographic film methods
    4. One-Color Printing
    5. Multicolor Printing and Registration
      1. Sequencing of colors
      2. Trapping
    6. Registration
      1. Alignment
      2. Substrates
    7. Overview of Types of Printing Papers
    8. Final Presentation
      1. Matting
      2. Framing
      3. Edition(s)


    Effective Term:
    Fall 2016
  
  • ART 217 - Painting II

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Continuation of ART 215 . Includes intermediate development and reinforcement of basic oil painting techniques and processes, development of compositional elements and formal pictorial organization, manipulation of pictorial elements, artistic expression, and health and safety in the painting studio.

    Prerequisite(s): ART 215  
    Recommendation: Completion of ART 115  before enrolling in this course. If any recommended course is taken, see a financial aid or Veteran’s Affairs advisor to determine funding eligibility as appropriate.
    Information: Prerequisite(s) may be waived with consent of instructor.
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Implement basic and complex painting techniques and processes.
    2. Demonstrate exploration of compositional elements in oil, acrylic and/or mixed media, which includes formal traditional and non-traditional pictorial organization.
    3. Demonstrate intermediate manipulation of pictorial elements in representational and/or personal iconography. 
    4. Demonstrate artistic development by using observational, inventive and/or other visual resources, participate in individual and group critiques, use critical thinking in developing own work, and explore and develop personal direction.
    5. Discuss health and safety standards applied in a painting studio. 

    Outline:
    1. Intermediate Painting Techniques and Processes 
      1. Transfer methods, substrates, mixed media techniques
      2. Indirect: underpainting/overpainting, glazing, layering, blending
      3. Direct: alla prima, wet-in-wet, impasto
      4. Approaches to color
    2. Development of Compositional Elements and Formal Pictorial Organization
      1. Intermediate manipulation of line, shape, and texture
      2. Intermediate color and value modeling
      3. Linear, atmosphere, and ambiguous space
      4. Art historical references, contemporary masters, and movements
    3. Demonstrate Intermediate Manipulation of Pictorial Elements
      1. Painting from observation and/or imagination
      2. Space: atmospheric and/or linear perspective, plein air and/or visual resources
      3. Personal iconography
    4. Artistic Development
      1. Pictorial and skill development through observational, inventive, or other visual resources
      2. Incorporate critical thinking into creative process
      3. Observe, examine, discover, and develop to create with personal direction
    5. Health and Safety in the Painting Studio
      1. Pigments, mediums, toxins, and solvents
        1. Inhalation
        2. Ingestion
        3. Exposure to skin
      2. Sink maintenance
      3. Easel maintenance
      4. Paint storage maintenance


    Effective Term:
    Fall 2013
  
  • ART 218 - Screenprinting II

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Continuation of ART 216 . Includes equipment orientation, advanced stencil-making techniques, printing, and types of printing papers and surfaces.

    Prerequisite(s): ART 216  
    Information: Students may select areas of interest for concentration and refinement of skills.
    Button linking to AZ Transfer course equivalency guide  



    Course Learning Outcomes
    1. Discuss the various equipment employed in screenprinting.
    2. Demonstrate advanced problem-solving in traditional stencil techniques.
    3. Demonstrate experimental, nontraditional screenprinting and multicolor techniques.
    4. Present a portfolio of several prints and discuss work using critical analysis in group/individual critiques.

    Outline:
    1. Equipment Orientation
      1. Textbooks
      2. Materials
      3. Screen preparation, mesh count, and tension
    2. Advanced Stencil-Making Techniques
      1. Speedball drawing liquids
      2. Glue-crayon method
      3. Tusche-glue method
      4. Cut-film technique (water film, lacquer film)
      5. Photo-film method
      6. Paper stencil
    3. Printing
      1. Multicolor printing and registration techniques
      2. Printing techniques
    1. Holding the paper down while printing
    2. Estimating the amount of ink needed
    3. Flood stroke
    4. Squeegee manipulation
    5. Registration of image

    IV. Types of Printing Papers and Surfaces

    1. Types of printing papers and weights
    2. Matting and the care of the print
    3. Editions in printing
    4. Discussion and critical analysis of final works


    Effective Term:
    Fall 2016

  
  • ART 219 - Printmaking III

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Continuation of ART 214 . Includes experimentation with intaglio, multi-color possibilities with non-traditional compositions, relief and intaglio multi-processes, monoprint with multiple plates, and critical analysis.

    Prerequisite(s): ART 214  
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Demonstrate experimental, non-traditional use of medium.
    2. Demonstrate advanced problem-solving in traditional intaglio processes.   
    3. Demonstrate advanced multi-process printing. 
    4. Demonstrate expanded use of monotype printing with additional color plates and/or nontoxic processes. 
    5. Discuss personal prints and engage critical analysis.

    Outline:
    1. Experimentation With Intaglio, Relief and/or Other Print Processes
      1. Creative combinations  
      2. Viscosity printing  
    2. Multi-Color Possibilities With Non-Traditional Compositions  
      1. Two-color combinations, and/or shaped/cut plates
      2. Viscosity printing  
    3. Combing Relief and Intaglio Multi-Processes
      1. Wood, zinc or copper
      2. Acrylic and/or acetate, transparent substrates for registration
      3. Chin colle or nontraditional collage processes
      4. Solarplates and ImageOn and/or solar/non-solar photo processes
    4. Expand on Monoprint With Multiple Plates, Offset or Varied Multiples Runs
      1. Creative combinations and registration  
      2. Viscosity printing with oil-based or water-based inks  
      3. Ghost prints with additional development
    5. Critical Analysis
      1. Use accurate print terminology of tools and processes in discussions/critiques
      2. Relate contemporary and historical references and solutions to personal work
      3. Final portfolio of intermediate to advanced prints


    Effective Term:
    Fall 2016
  
  • ART 220 - Sculpture

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Exploration of methods, materials, and content used in sculpture. Includes studio project concept, media and technique, sculpture lab health and safety procedures, and visual literacy and critical analysis.

    Prerequisite(s): ART 120  
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Demonstrate development of content through exploration of sculptural concepts.
    2. Demonstrate development of skills in using a range of three-dimensional media and techniques. 
    3. Demonstrate safe work practices and the ability to use equipment safely and properly.
    4. Demonstrate visual literacy and critical analysis skills.

    Outline:
    1. Studio Project Concept
      1. Figure/body
      2. Object based
      3. Installation
      4. Kinetic  
      5. Interactive
    2. Media and Technique
      1. Casting
      2. Modeling
      3. Mold making
      4. Fabrication
      5. Metals fabrication
      6. Carving
      7. Finishing techniques
    3. Sculpture Lab Health and Safety Procedures
      1. Personal protective equipment use
      2. Proper use of tools and equipment
        1. Machine and tool guards
        2. Proper safety application
        3. Ventilation
        4. Safety demonstrations
      3. Proper safety processes
    4. Visual Literacy and Critical Analysis
      1. Individual critiques
      2. Group critique  


    Effective Term:
    Fall 2016
  
  • ART 227 - Painting III

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Continuation of ART 217 . Includes intermediate and advanced painting techniques and processes, exploration of compositional elements, color and value modeling, creative employment of perspective, manipulation of pictorial elements, artistic development, artist statement, and health and safety in the studio.

    Prerequisite(s): ART 217  
    Information: Prerequisite may be waived with consent of instructor.
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Implement intermediate and complex painting techniques and processes.
    2. Demonstrate informed exploration of compositional elements in oil, acrylic, and/or mixed media, which includes traditional and/or non-traditional pictorial organization and explores more advanced painting concepts. 
    3. Demonstrate intermediate to advanced manipulation of pictorial elements using representational, abstract, and/or personal iconography. 
    4. Demonstrate further artistic development, using observational, inventive, and/or other visual resources. 
    5. Discuss contemporary issues and trends from web research and/or gallery/museum visits.
    6. Create an artist statement. 
    7. Discuss health and safety standards applied in a painting studio.

    Outline:
    1. Intermediate and Advanced Painting Techniques and Processes 
      1. Transfer methods, substrates, mixed media techniques. (traditional, archival and nontraditional)
      2. Indirect: underpainting/overpainting, glazing, layering techniques, blending and mediums
      3. Direct: alla prima, wet-in-wet, impasto
      4. Personal approach to value and color, lighting, and color schematics
    2. Informed Exploration of Compositional Elements
      1. Intermediate manipulation of line, shape, and texture
      2. Advanced manipulation of line, shape, and texture
    3. Intermediate to Advanced Color and Value Modeling
    4. Creative Employment of Perspective: Linear, Atmospheric and/or Ambiguous Space
    5. Intermediate to Advanced Manipulation of Pictorial Elements
      1. Painting from observation, imagination, visual resources, and/or abstraction.
      2. Further facilitation in the development of personal style and/or iconography 
    6. Artistic Development
      1. Explore advanced painting concepts, art historical references, and contemporary trends, issues and methods in painting
      2. Critical thinking and creative process
      3. Further technical and conceptual skills and increased self-discipline
      4. Observe, examine, discover, and develop to create with personal direction
      5. Participate in individual and group critiques
    7. Artist Statement
      1. Research artist statements online
      2. Develop ideas, content, and appropriate vocabulary to create a personal statement
    8. Health and Safety in the Painting Studio: Inhalation and Ingestion
      1. Pigments
      2. Mediums
      3. Toxins
      4. Solvents
    9. Exposure to Skin
      1. Proper disposal of materials
      2. Sink maintenance
      3. Easel maintenance
      4. Studio maintenance
      5. Paint storage maintenance
        1. Extending paint shelf-life
        2. Brush and tool maintenance


    Effective Term:
    Spring 2019
  
  • ART 232 - Digital Photography II

    4 Credits, 6 Contact Hours
    2 lecture periods 4 lab periods

    Continuation of ART 128 . The course concentrates on intermediate digital cameras with manual functions, intermediate lighting techniques, intermediate digital darkroom, intermediate digital output, intermediate portfolio development, and critical analysis of digital photography in historical and contemporary practices. Lab work involves operating drones, professional digital (full frame and medium format) cameras, in-studio and on-location lighting set-ups, state-of-the-art professional editing and printing system.

    Prerequisite(s): ART 128  
    Information: The prerequisite may be waived with the consent of the instructor. Drones, professional photographic equipment, including cameras, are available for check out on a rotating basis. Professional quality computers, software, printers, and lighting equipment will be provided for specific assignments. 
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Demonstrate intermediate skills in digital photographic workflow.
    2. Demonstrate intermediate skills in lighting.
    3. Demonstrate ability in critical analysis and visual literacy.
    4. Create a conceptual series of artwork.

    Outline:
    1. Intermediate skills in digital workflow from image capture, editing to printing
      1. Cameras (Digital Full Frame, Digital Medium Format cameras, Drones)
      2. Lenses
      3. Various effects of aperture and shutter speed
      4. Image manipulation and alteration
      5. Color management
      6. Paper profiles
    2. Intermediate skills in lighting
      1. Types of lighting
        1. Ambient
        2. Strobe
        3. Continuous lights
      2. Qualities of light
      3. Studio lighting techniques
      4. Location lighting techniques
    3. Intermediate critical analysis and visual literacy
      1. Group and individual critiques
      2. Lectures and reading discussions cover the roles of photography, its aesthetic quality, and the communication motives behind making digital images in the historical context of visual culture
      3. Attending artist lectures
    4. Portfolio development         
      1. Produce a final portfolio with technical, aesthetic, and conceptual unity and quality, using professional quality output to print


    Effective Term:
    Fall 2022
  
  • ART 250 - Gallery and Museum Practices

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Introduction to practices and procedures of galleries and museums. Includes preparation of resume and artist statement, create press release and exhibition announcement, exhibition preparation, photographing artwork, frame artwork for exhibition, gallery and museum administration, present a body of work, and market artwork.

    Prerequisite(s): ART 100  
    Recommendation: Consult instructor for alternative prerequisites.
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Prepare a resume and artist statement.
    2. Compose a press release and design an exhibition announcement.
    3. Install an exhibition.
    4. Photograph artwork and prepare images/slides.
    5. Frame or prepare art for exhibition.
    6. Describe the daily workings of a gallery.
    7. Present a body of work for exhibition.
    8. Explain how to market work.

    Outline:
    1. Prepare a Resume and an Artist Statement
      1. Software and formatting
      2. Related experiences
      3. Artist statement about artwork
    2. Create Press Release and Exhibition Announcement
      1. Formatting and deadlines
      2. Design images and text: venue, dates, and credit/captions
      3. Outlets for media
    3. Exhibition Preparation
      1. Body of work
      2. Presentation
      3. Installation
    4. Photographing Artwork
      1. Proper preparation of artwork and environment for photographing artwork
      2. Resolutions for promotional materials/media
      3. Resources
      4. Agencies/representatives/commercial galleries vs. non-profit museums
    5. Frame Artwork for Exhibition
      1. Ready-mades vs. custom frames
      2. Fitting work to hang
      3. Display 3-D works
      4. Communicating with the curator and administration
    6. Gallery/Museum Administration
      1. Recite sequence of operations for galleries and museums
      2. Identify museum and gallery personnel responsibilities
      3. Participate in site visits
    7. Present a Body of Work for Exhibition
      1. Prepare information for labels: titles, media, and valuation
      2. Prepare materials for promotion: resume, statement, images
    8. Market Work
      1. Participate in exhibition reception(s)
      2. Discuss work verbally and in artist statement
      3. Identify media for marketing/exposure


    Effective Term:
    Fall 2016
  
  • ART 260 - Ceramics II

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Continuation of ART 160 . Includes intermediate handbuilding techniques and methods of fabrication, wheel throwing and trimming, projects involving formal elements, intermediate ceramic techniques, reduction firing, raku firing, plaster press mold, ceramic artist research, and discussion and exploration topics.

    Prerequisite(s): ART 160  
    Button linking to AZ Transfer course equivalency guide  



    Course Learning Outcomes
    1. Demonstrate closer attention on creative skills and the refinement of handbuilding techniques and other methods of fabrication at the intermediate level.
    2. Review and refine wheel throwing and trimming techniques.
    3. Complete several projects that involve a more in-depth analysis of the elements of scale, texture, form, and functionality.
    4. Produce ceramic art using intermediate techniques.
    5. Demonstrate the practice and application of chemical change through cone 10 reduction firing.
    6. Produce a raku fire piece using specified glazing and cooling reduction techniques and processes.
    7. Create and fire a plaster press mold and a cast by using clay slabs.
    8. Research, write, and present information on an individual ceramic artist.
    9. Discuss various topics related to the design, aesthetics, and history of ceramic art.

    Outline:
    1. Intermediate Handbuilding Techniques and Methods of Fabrication
      1. Pinch
      2. Coil
      3. Slab
    2. Wheel Throwing and Trimming
    3. Projects Involving Formal Elements
      1. Scale
      2. Texture
      3. Form
      4. Functionality
    4. Intermediate Ceramic Techniques
    1. Glazing
    1. Chemical change in oxidation
    2. Chemical change in reduction
    1. Firing temperatures

    V.    Cone 10 Reduction Firing

    1. Oxidation
    2. Reduction

    VI.    Raku Firing

    VII.   Plaster Press Mold

    VIII.  Ceramic Artist Research

    IX.    Ceramic Discussion/Exploration Topics

    1. Design
    2. Aesthetics
    3. History of ceramic art


    Effective Term:
    Fall 2012

  
  • ART 261 - Ceramics III

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Continuation of ART 260 . Includes intermediate and advanced handbuilding techniques and methods of fabrication, wheel throwing and trimming, projects involving formal elements, intermediate and advanced ceramic techniques, reduction firing, raku firing, plaster casting mold, ceramic artist research, and discussion and exploration topics.

    Prerequisite(s): ART 260  
    Button linking to AZ Transfer course equivalency guide  



    Course Learning Outcomes
    1. Demonstrate closer attention on creative skills and the refinement of handbuilding techniques and other methods of fabrication at the intermediate and advanced levels.
    2. Review and refine wheel throwing and trimming techniques.
    3. Complete several projects that involve a more in-depth analysis of the elements of scale, texture, form, and functionality.
    4. Produce ceramic art using intermediate and advanced techniques.
    5. Demonstrate the practice and application of chemical change through cone 10 reduction firing.
    6. Produce a raku fire piece using specified glazing and cooling reduction techniques and processes.
    7. Create and fire a casting mold and a cast by using clay casting slips.
    8. Research, write, and present information on an individual ceramic artist.
    9. Discuss various topics related to the design, aesthetics, and history of ceramic art.

    Outline:
    1. Intermediate and Advanced Handbuilding Techniques and Methods of Fabrication
      1. Pinch
      2. Coil
      3. Slab
    2. Wheel Throwing and Trimming
    3. Projects Involving Formal Elements
      1. Scale
      2. Texture
      3. Form
      4. Functionality
    4. Intermediate and Advanced Ceramic Techniques
    1. Glazing
    1. Chemical change in oxidation
    2. Chemical change in reduction
    1. Firing temperatures

    V.    Cone 10 Reduction Firing

    1. Oxidation
    2. Reduction

    VI.    Raku Firing

    VII.   Plaster Casting Mold

    VIII.  Ceramic Artist Research

     

    IX.    Ceramic Discussion/Exploration Topics

    1. Design
    2. Aesthetics
    3. History of ceramic art


    Effective Term:
    Full Academic Year 2018/2019

  
  • ART 262 - Ceramics IV

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Continuation of ART 261 . Includes advanced handbuilding techniques and methods of fabrication, wheel throwing and trimming, projects involving formal elements, advanced ceramic techniques, reduction firing, raku firing, four test glazemaking, ceramic artist research, and discussion and exploration topics.

    Prerequisite(s): ART 261  
    Button linking to AZ Transfer course equivalency guide  



    Course Learning Outcomes
    1. Demonstrate closer attention on creative skills and the refinement of handbuilding techniques and other methods of fabrication at the advanced level.
    2. Review and refine wheel throwing and trimming techniques.
    3. Complete several projects that involve a more in-depth analysis of the elements of scale, texture, form, and functionality.
    4. Produce ceramic art using advanced techniques.
    5. Demonstrate the practice and application of chemical change through cone 10 reduction firing.
    6. Produce a raku fire piece using specified glazing and cooling reduction techniques and processes.
    7. Find at least four interesting glaze recipes, mix and apply on the test tiles and on the students’ piece for reduction firing. 
    8. Research, write, and present information on an individual ceramic artist.
    9. Discuss various topics related to the design, aesthetics, and history of ceramic art.

    Outline:
    1. Advanced Handbuilding Techniques and Methods of Fabrication
      1. Pinch
      2. Coil
      3. Slab
    2. Wheel Throwing and Trimming
    3. Projects Involving Formal Elements
      1. Scale
      2. Texture
      3. Form
      4. Functionality
    4. Advanced Ceramic Techniques
    1. Glazing
    1. Chemical change in oxidation
    2. Chemical change in reduction
    1. Firing temperatures

    V.    Cone 10 Reduction Firing

    1. Oxidation
    2. Reduction

    VI.    Raku Firing

    VII.   Four Test Glazemaking

    VIII.  Ceramic Artist Research

     

    IX.    Ceramic Discussion/Exploration Topics

    1. Design
    2. Aesthetics
    3. History of ceramic art


    Effective Term:
    Full Academic Year 2018/2019

  
  • ART 270 - Metalwork II: Jewelry

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Continuation of ART 170 . Includes design approaches to jewelry making, review of various intermediate techniques, functional considerations involved in jewerly design, and safety and health issues.

    Prerequisite(s): ART 170  
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Demonstrate closer attention to design skills and discussion of contemporary and historical jewelry/metalwork.
    2. Demonstrate intermediate level jewelry techniques.
    3. Demonstrate close attention to functional limitations and aesthetic considerations in the area of jewelry design, both contemporary and historical. 
    4. Demonstrate, describe, and apply safety and health procedures related to materials, tools, and equipment.

    Outline:
    1. Detailed Information and Background on Historical and Contemporary Metalwork 
      1. Metal works from antiquity including decorative, ritual, and functional objects
      2. 20th Century developments in materials and design
      3. Effect of digital techniques on contemporary metalworks and jewelry
      4. Intermediate Instruction in Use of Tools and Equipment
      5. Casting
      6. Wire techniques
      7. Hollow form fabrication
      8. Die fabrication
      9. Intermediate Instruction in Functional Aspects of Jewelry Making
      10. Instruction in All Aspects of Safety and Health Procedures
    2. Intermediate Instruction in Functional Aspects of Jewelry Making
      1. Experimentation, limits, and possibilities
      2. New material explorations
    3. Instruction in All Aspects of Safety and Health Procedures
      1. Personal protective equipment
      2. Equipment procedures
      3. Lab hygiene and waste disposal procedures
      4. Health and safety in the home studio


    Effective Term:
    Full Academic Year 2020/2021
  
  • ART 289 - Portfolio Capstone

    1 Credits, 2 Contact Hours
    .5 lecture periods 1.5 lab periods

    Assembly and production of a professional quality portfolio of the student’s own artwork with a focus on personal creativity and a coherent presentation. Includes review of assembly of portfolio materials, presentation of artwork, presentation of ideas and concepts, and a final capstone portfolio review.

    Information: Consent of instructor is required before enrolling in this course. A minimum grade of C is required to complete this course.
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Assemble, curate, and document artwork for a portfolio that exhibits both technical competency and a conceptual perspective that reflect their interests and creativity.
    2. Demonstrate the ability to critically reflect, discuss, and articulate both verbally and in written form the relationship of their own artwork and perspective in a global and creative context.

    Outline:
    1. Review and Assembly of Portfolio Materials
    1. Selecting and curating work for presentation
    2. Discussion of client expectations and purpose of portfolio
    3. Professional presentational standards
    4. Building, formatting, and organizing a resume
    1. Presentation of Artwork
    1. Photographing and/or scanning of artwork
    2. Formatting artwork for presentation
    3. Investigating traditional exhibition options
    4. Investigating digital and social media exhibition options
    1. Presentation of Ideas and Concepts
    1. Investigating conceptual, historical, and global connections relating to one’s own perspective and inspirations
    2. Organizing creative ideas
    3. Writing and editing an Artist Statement
    4. Assembling a coherent oral presentation of one’s artwork
    1. Final Capstone Portfolio Review
    1. Oral presentation
    2. Final faculty critique of artwork, artist’s statement, checklist, resume/CV, and an electronic version of the portfolio in a Power Point, web, or social media format.


    Effective Term:
    Full Academic Year 2018/2019
  
  • ART 296I2 - Independent Study in ART: Ceramics

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Advanced projects in ceramics. Content to be determined by conference between student and instructor.

    Information: Consent of instructor is required before enrolling in this course. May be taken four times for a maximum of twelve credit hours. If this course is repeated see a financial aid or Veteran’s Affairs advisor to determine funding eligibility as appropriate.
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Identify areas of individual study.  
    2. Develop objectives which delineate the art project/assignment.  
    3. Demonstrate additional knowledge and creativity in the specific art area selected. 
    4. Develop a series of activities which meet the objectives of the project. 
    5. Produce a body of work which represents at least seventy-five hours of studio time.
    6. Demonstrate the practice and application of chemical changes through cone 10 reduction firing.
    7. Produce a raku fire piece using specified glazing and cooling reduction techniques and processes.
    8. Develop and expand skills and techniques acquired in previous courses in the chosen discipline.
    9. Explore ideas and approaches studied in previous courses and incorporate these concepts into specified projects.

    Outline:
    Content to be determined by the student and instructor.

    Effective Term:
    Fall 2012
  
  • ART 296I4 - Independent Study in ART: Painting, Drawing, and Design

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Advanced projects in painting, drawing, and design. Content to be determined by conference between student and instructor.

    Information: Consent of instructor is required before enrolling in this course. May be taken four times for a maximum of twelve credit hours. If this course is repeated see a financial aid or Veteran’s Affairs advisor to determine funding eligibility as appropriate.
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Identify areas of individual study.  
    2. Develop objectives which delineate the art project/assignment.   
    3. Demonstrate additional knowledge and creativity in the specific art area selected. 
    4. Develop a series of activities which meet the objectives of the project. 
    5. Produce a body of work which represents at least seventy-five hours of studio time.
    6. Develop and expand skills and techniques acquired in previous courses in the chosen discipline. 
    7. Explore ideas and approaches studied in previous courses and incorporate these concepts into specified projects.

    Outline:
    Content to be determined by the student and instructor.

    Effective Term:
    Fall 2016
  
  • ART 296I5 - Independent Study in ART: Photography

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Advanced projects in photography. Content to be determined by conference between student and instructor.

    Information: Consent of instructor is required before enrolling in this course. May be taken four times for a maximum of twelve credit hours. If this course is repeated see a financial aid or Veteran’s Affairs advisor to determine funding eligibility as appropriate.
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Apply photography knowledge and skills by using individually or combine traditional, digital, and/or alternative processes in image making.    
    2. Demonstrate written and verbal analytical skills through critique and self-reflection.     
    3. Produce a new body of individualized work.    

    Outline:

    Content to be determined by the student and instructor. 


    Effective Term:
    Full Academic Year 2019/2020
  
  • ART 296I7 - Independent Study in ART: Sculpture

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Advanced projects in sculpture. Content to be determined by conference between student and instructor.

    Information: Consent of instructor is required before enrolling in this course. May be taken four times for a maximum of twelve credit hours. If this course is repeated see a financial aid or Veteran’s Affairs advisor to determine funding eligibility as appropriate.
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Identify areas of individual study.  
    2. Develop objectives which delineate the art project/assignment.   
    3. Demonstrate additional knowledge and creativity in the specific art area selected. 
    4. Develop a series of activities which meet the objectives of the project. 
    5. Produce a body of work which represents at least seventy-five hours of studio time.
    6. Develop and expand skills and techniques acquired in previous courses in the chosen discipline. 
    7. Explore ideas and approaches studied in previous courses and incorporate these concepts into specified projects.

    Outline:

    Content to be determined by the student and instructor. 


    Effective Term:
    Fall 2016

Astronomy

  
  • AST 101IN - Solar System

    4 Credits, 6 Contact Hours
    3 lecture periods 3 lab periods

    Introduction to the science of the nature and origin of the solar system: the sun and its family of planets, along with comets and asteroids. Includes the history of astronomy and special topics regarding the space program. Also includes scientific thinking as an application of critical and quantitative thinking, and science in contrast to pseudoscience. Also includes in-class measuremental and mathematical exercises, outside observation projects, independent studies, and self-initiated trips to local astronomy facilities.

    Gen-Ed: Meets AGEC - SCI; Meets CTE - M&S.



    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Discuss how astronomical observations contributed to the scientific revolution of the 17th century and explain the evidence for a heliocentric model for our solar system.
    2. Describe and explain the apparent motions of celestial bodies as seen from an observer on Earth, and apply this knowledge in order to predict positions and appearances of objects on the sky as a function of time and the observer’s location.
    3. Describe current theories of planet formation and relate these to the present-day structure of our own solar system.
    4. Recognize the immense spatial and time scales of the solar system, and compare and contrast these with human scales using scientific notation, distance ranking and scale models.
    5. Predict orbital parameters for gravitating systems by applying Kepler’s laws of planetary motion and Newton’s laws of motion and Universal Gravitation.

    Performance Objectives:
    1. Demonstrate improvement in critical and quantitative thinking by applying the scientific method to fact and theory in classroom learning, activities (some quantitative and mathematical), and assignments (some quantitative and mathematical).
    2. Distinguish science from pseudoscience.
    3. Describe the overall structure and individual components of the solar system.
    4. Describe the solar system’s origin.
    5. Explain the historical development and multi-cultural aspects of the practice of science generally, and astronomy, specifically.
    6. Outline the technical development of modern astronomy and space exploration.
    7. Generate or expand global awareness by integrating astronomy’s cosmic, worldwide and multi-cultural perspective of earth with insights gained from its historical development, and scientific and societal impacts.
    8. Demonstrate the improvement in critical and quantitative thinking by analyzing astronomical observations related to specific information covered in lectures.
    9. Expand global awareness by identifying aspects of the sky and recording common sky phenomena, utilizing the naked eye or binoculars.
    10. Expand global awareness by examining and describing the sky more closely based on at least one telescope viewing experience. 
    11. Describe astronomical and astronomy-related facilities in the Tucson area.
    12. Discuss the Tucson area’s importance to the field of astronomy and astronomy’s role in the local economy.

    Outline:
    1. General Introduction
      1. What is Science?
      2. The role of mathematics in science
        1. Quantitative vs. qualitative understanding
        2. Linear and angular measurement
        3. Unit conversion
        4. Equations
        5. Graphing
      3. What is Astronomy?
      4. Value of Astronomy and benefits to the individual
      5. Scientific Method and the central role of skepticism
        1. Contrast with Pseudoscience
        2. Possible Pseudosciences to examine as related to Astronomy
          1. Astrology
          2. Scientific creationism as related to the solar system and the origin, age and life on Earth
          3. Jupiter effect
          4. Moon muddling
          5. Comets as mystical messengers of doom
          6. Immanual Velikovsky’s Planetary Billiards
    2. Solar System
      1. Cosmic perspective: the Solar System’s location in space and time
      2. General description and structure
      3. Age of the Solar System
      4. Origin: theory and evidence
      5. Planets orbiting other stars
    3. Descriptive Study of Individual Objects
      1. Sun
      2. Earth and Moon
        1. Tidal effect
        2. Solar-Terrestrial connections
        3. Origin of the Moon
      3. Mercury
      4. Venus
      5. Mars and satellites
      6. Jupiter and satellites
      7. Saturn and satellites
      8. Uranus and satellites
      9. Neptune and satellites
      10. Pluto and Charon
      11. Comets, asteroids, and their origins
    4. History of Astronomy
      1. Astronomical practice, invention, and discoveries around the world
      2. Development of modern science
        1. The Greeks
        2. Aristotelian Science
        3. Demise of Science
        4. Islamic contributions
        5. The Scientific (Copernican) Revolution and its impact on the World
    5. The Technical Development of Modern Astronomy
      1. Major Observatories
      2. Telescopes
        1. Optics
        2. Instruments
      3. Celestial coordinates
    6. Space Exploration and Development
      1. History
      2. Values: costs versus benefits
      3. Future explorations and economic development
    7. Reprise: Cosmic Perspective—Beyond Global Awareness
      1. Our location in time and space
      2. Astronomical numbers
      3. Specialized units
    8. In-Class Collaborative Exercises and Activities
      1. Solar System to scale
      2. Solar System models
      3. Celestial Sphere and star charts
      4. Equatorial coordinates
      5. Horizon coordinates
      6. Lost on the Moon
      7. Planetary models
      8. Discussion groups on varied topics
        1. Aspects of Pseudoscience
        2. Global warming and what to do about it
        3. Space exploration: pros and cons
        4. Pluto as a planet: pros and cons
    9. Individual Laboratory Exercises
      1. Terrestrial Planets Mercury and Venus
      2. Terrestrial Planets Mars
      3. Kepler’s Law
      4. Sidereal time
      5. Stellar parallax
      6. Measuring large distances
      7. Lunar geology
      8. Construction of a sun dial
    10. Videos Related to Lecture Topics
    11. Space Exploration and Economic Development
      1. Historical development
      2. Future exploration possibilities
      3. Pros and cons of space development
    12. Observation Projects
      1. Standardized observing and recording of sky phenomena
      2. Sun
      3. Moon
      4. Planets and their satellites
      5. Identifying bright stars and constellations
      6. Star counts
      7. Finding asteroids
    13. Potential Field Trips
      1. Kitt Peak National Observatory
      2. Whipple Observatory on Mt. Hopkins
      3. Flandrau Planetarium
      4. Group observational session at a dark site with telescope
      5. University of Arizona Mirror Lab


    Effective Term:
    Fall 2015
  
  • AST 102IN - Stars, Galaxies, Universe

    4 Credits, 6 Contact Hours
    3 lecture periods 3 lab periods

    Introduction to the universe beyond the solar system. Includes the nature of light, how astronomers and telescopes work, and the possibilities of alien life in the universe. Also includes the lifetime of stars, exotic objects such as quasars, pulsars and black holes; and the origin, nature, and future of the universe. Also includes scientific thinking as an application of critical and quantitative thinking and science in contrast to pseudoscience. Also includes in-class measuremental and mathematical exercises, outside observation projects, independent studies, and self-initiated field trips to local astronomy facilities.

    Prerequisite(s): ICS 081  with a grade of B or better, or MAT 086 with a grade of C or better, or placement into MAT 092  .
    Gen-Ed: Meets AGEC - SCI; Meets CTE - M&S.



    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Rank different types of electromagnetic radiation in terms of their energy, frequency and wavelength and analyze spectral and photometric data to infer temperatures, luminosities, compositions, distances and velocities of celestial objects.
    2. Identify the main evolutionary stages of a star’s life on an HR diagram, explain how a star’s evolution and lifetime depend on its mass, and identify the role each evolutionary stage plays in the synthesis of heavy nuclei.
    3. Interpret the Hubble diagram and the Cosmic Microwave Background data and explain why these observations support a Big Bang cosmology.
    4. Recognize the immense spatial and time scales of the Universe, and compare and contrast these with human scales using scientific notation, distance ranking and scale models.
    5. Predict orbital parameters for gravitating systems by applying Kepler’s laws of planetary motion and Newton’s laws of motion and Universal Gravitation.

    Performance Objectives:
    1. Demonstrate improvement in critical and quantitative thinking by applying the scientific method to fact and theory in classroom learning, activities (some quantitative and mathematical), and assignments (some quantitative and mathematical).
    2. Distinguish science from pseudoscience.
    3. Induce or expand global awareness with the cosmic perspective on earth offered by describing the general hierarchical structure and individual components of the observable universe.
    4. Explain theories of the origin of the universe.
    5. Describe the nature of stars and starlight.
    6. Delineate the characteristics of galaxies.
    7. Indicate major technical developments assisting greater understanding of the universe.
    8. Discuss the probabilities of life elsewhere in the universe.
    9. Employ specific concepts, skills, or information related to AST 102 lectures in various in-class activities and outside observation projects.
    10. Identify specific aspects of the sky and record common sky phenomena, utilizing the naked eye or binoculars.
    11. Examine and describe the sky more closely in at least one telescope viewing experience.
    12. Describe astronomical and astronomy-related facilities in the Tucson area.
    13. Discuss the Tucson area’s importance to the field of astronomy and astronomy’s role in the local economy.

    Outline:
    1. General Introduction
      1. What is Science?
      2. The role of mathematics in science
        1. Quantitative vs. qualitative understanding
        2. Linear and angular measurement
        3. Unit conversion
        4. Equations
        5. Graphing
      3. What is Astronomy?
      4. Value of Astronomy and benefits to the individual
      5. Scientific method and the central role of skepticism
        1. Contrasts with pseudoscience
        2. Possible pseudosciences related to Astronomy
          1. UFO’s (“flying saucers”)
          2. Ancient astronauts
          3. Scientific creationism as related to the age and origin of the Universe
    2. Nature of Starlight
      1. Magnitude system
      2. Electromagnetic spectrum
      3. Physics: what light tells us
        1. Radiation Laws (Planck, Wien, Stephan-Boltzmann)
        2. Doppler effect
    3. Modern Astronomy
      1. Major observatories
      2. Telescopes
        1. Optics
        2. Instruments
      3. Celestial coordinates
    4. Stars
      1. Physical nature
      2. Distances
      3. Motions
      4. Associations
      5. Clusters
        1. Open or galactic
        2. Globular
      6. H-R Diagram
      7. The Sun and stellar evolution
    5. Galaxies
      1. Milky Way
      2. Galaxy morphology
      3. Quasars
      4. Clusters, superclusters, and voids
    6. Universe
      1. Description of present-day Universe and modern discoveries
        1. Hubble expansion
        2. Superclusters
        3. 3K cosmic microwave background
      2. Theories of origin
        1. Steady state
        2. Big Bang
        3. Inflationary
      3. Future of Universe
    7. Life in the Universe
      1. The nature of life
      2. Probability estimates
        1. Simple life forms
        2. Complex life forms
      3. Pseudoscience: UFO’s and ancient astronauts
    8. Cosmic Perspective: Beyond Global Awareness
      1. Our location in space and time
      2. Astronomical numbers
      3. Specialized units
    9. Observation Projects
      1. Standardized methods of observing and recording sky phenomena
      2. Circumpolar constellations
      3. Identifying bright stars and constellations
      4. The Sun
      5. Cluster star counts
      6. Double stars
    10. Collaborative Exercise and Activities
      1. Stellar brightness and magnitudes
      2. Sunspot observation
      3. Sunspot cycle
      4. H-R diagram
      5. Life in the Universe
    11. Individual Laboratory Exercises
      1. Tools of the astronomer
      2. EM radiation
      3. Constellations
      4. Galaxies
    12. Videos Related to Lecture Topics
    13. Potential Field Trips
      1. Kitt Peak National Observatory
      2. Whipple Observatory of Mt. Hopkins
      3. Flandrau Planetarium
      4. Group observational session at a dark site with telescope
      5. University of Arizona Mirror Lab


    Effective Term:
    Full Academic Year 2017/18
  
  • AST 105IN - Life in the Universe

    4 Credits, 6 Contact Hours
    3 lecture periods 3 lab periods

    The science of astronomy focusing on the formation of the universe, the solar system, and life. Includes Earth’s location in space and time, nature of life, light and the spectrum, origin of the universe, galaxies and stars, origin of the solar system, planetary atmospheres, origin of life on Earth, life on other solar system planets, and life around other stars. Also includes observations, experiments, image analysis, scientific and photogeology laboratory exercise, group telescopic observation projects, and personal observation projects.

    Prerequisite(s): ICS 081  with a grade of B or better, or MAT 086 with a grade of C or better, or satisfactory score on the mathematics assessment.
    Gen-Ed: Meets AGEC - SCI; Meets CTE - M&S.



    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Discuss how astronomical observations contributed to the scientific revolution of the 17th century and explain the evidence for a heliocentric model for our solar system.
    2. Describe current theories of planet formation and relate these to the present-day structure of our own solar system.
    3. Predict orbital parameters for gravitating systems by applying Kepler’s laws of planetary motion and Newton’s laws of motion and Universal Gravitation.
    4. Define habitability of a planet and apply astronomical concepts and techniques to the search for extrasolar planets and extraterrestrial life.
    5. Identify the main evolutionary stages of a star’s life on an HR diagram and describe the role of massive stars in the synthesis of heavy elements present on Earth today

    Performance Objectives:
    1. Name and locate the planets of the solar system and briefly describe their nature.
    2. Describe the basis of life as we know it.
    3. Describe the electromagnetic spectrum and its use in determining the nature of astronomical objects.
    4. Describe current theories for the origin of the universe.
    5. Explain the processes involved in the birth and evolution of galaxies and stars.
    6. Describe current theories for the origin of the solar system including planets, comets, and meteorites.
    7. Explain the processes involved in the origin and evolution of planetary atmospheres.
    8. Describe current theories for the origin of life on earth.
    9. Discuss the evidence for life on Mars and elsewhere.
    10. Discuss factors determining the existence of life around other stars, and its detection.
    11. Use a variety of scientific techniques.
    12. Compare impact and volcanic features on several planets in the solar system.
    13. Describe the electromagnetic spectrum and its use in determining the chemical and physical properties of astronomical objects.
    14. Explain how radioactive decay can be used to obtain an absolute age for an object.
    15. Discuss the similarities and differences between various kinds of meteorites and terrestrial rocks.
    16. Discuss the climatological processes that have shaped the surfaces of Earth and Mars and how ice cores can be used to examine variations in the Earth’s climate.
    17. Describe the prominent features on the Moon and the formation and morphology of craters and their use in determining relative ages.
    18. Discuss planetary features observable through a telescope.
    19. Explain the phases and motion of the moon.
    20. Explain the motions of the stars and planets in the sky.

    Outline:
    1. Earth’s Location in Space and Time
      1. Scientific notation
      2. Distance scale
      3. Terminology
        1. Planet
        2. Solar system
        3. Galaxy
        4. Universe
    2. Nature of Life
      1. Carbon-based
      2. Organic compounds
        1. Proteins
        2. Amino acids
        3. DNA and RNA
        4. Cells
    3. Light and the Spectrum
      1. Composition of matter
        1. Molecules
        2. Atoms
        3. Sub-atomic particles
      2. Electromagnetic spectrum
      3. Physics - what light tells us
        1. Wien’s law
        2. Stefan-Boltzmann law
        3. Doppler shift
    4. Origin of the Universe
      1. Origin of matter
        1. Inflationary Big Bang model
        2. 3K background radiation
        3. Origin of light elements
      2. Evolution of matter
    5. Galaxies and Stars
      1. Formation of galaxies
      2. Birth and evolution of starts
        1. Interstellar medium
        2. Stellar energy sources
        3. Nucleosynthnesis of heavier elements
        4. Deaths of stars
    6. Origin of the Solar System
      1. Structure of the solar system
      2. Origin of planets
      3. Comets/asteroids/meteorites
    7. Planetary Atmospheres
      1. Planetary differentiation and evolution
        1. Plate tectonics on Earth
        2. Geologic processes on terrestrial planets
      2. Primary and secondary atmospheres
    8. Origin and Evolution of Life on Earth
      1. Miller-Urey experiments
      2. Polymerization in clays
      3. Imported organics (meteorites/comets)
      4. Impacts and extinctions
    9. Life on Other Solar System Planets
      1. Mars
        1. Evidence for ancient liquid water
        2. Viking lander biology experiments
      2. Outer solar system
        1. Pre-biotic conditions on Titan
        2. Speculation on water on Europa
    10. Intelligent Life Around Other Stars
      1. Habitable zones
      2. Drake equation
      3. Detection
      4. Unidentified Flying Objects (UFO’s) as pseudoscience
    11. In-Class Laboratory Exercises
      1. Scientific techniques
        1. Metric system and scientific notation
        2. How to use an x-y graph
        3. Angular measurement and the horizon system
      2. Photogeology
        1. Impact features on Mercury, the Earth, the Moon, Mars, Galilean Satellites
        2. Volcanic features on Venus, the Earth, the Moon, Mars, Galilean Satellites
      3. Spectroscopy
        1. Gas spectra (using gas discharge tubes)
        2. Asteroid spectra vs. meteorite spectra
        3. Organic molecules in interstellar medium
      4. Radioactivity
        1. Construct a three-isotope diagram
        2. Determine the age of a rock sample
      5. Meteorite and terrestrial rock samples
        1. Characterization of terrestrial minerals and rocks
        2. Fossils
        3. Characterization of meteorite types
        4. Criteria used to recognize a meteorite
      6. Climate of Earth and Mars
        1. Compare fluvial and glacial features
        2. Stable isotopes and ice cores
    12. Group Telescopic Observation Projects
      1. Moon
        1. Locate and describe prominent features on the Moon
        2. Examine and discuss lunar crater morphology
        3. Examine and discuss crater statistics and determine relative ages of regions on the moon
      2. Planets
        1. This exercise will vary depending on which planets are available for observation during the semester in which the lab in taught, but may include:
        2. Phases of Venus
        3. Belts and moons of Jupiter
        4. Rings, belts and moons of Saturn
        5. Albedo features and polar caps of Mars
    13. Personal Observation Projects
      1. Moon
        1. Two-week observation – lunar phases and revolution
        2. Twelve-hour observation – Earth’s rotation
      2. Constellations
        1. Once-a-week observations for ten weeks – Earth’s revolution
        2. One evening observation – Earth’s rotation
      3. Planets – Motion compared to constellations over ten week period


    Effective Term:
    Spring 2018
  
  • AST 296LB - Independent Study in Astronomy

    1-4 Credits, 3-12 Contact Hours
    0 lecture periods 3-12 lab periods

    Experience in astronomical research, projects, or topical studies. Specific content to be determined by student and instructor.

    Information: Consent of instructor is required before enrolling in this course. May be taken three times for a maximum of twelve credit hours. If this course is repeated see a financial aid or Veteran’s Affairs advisor to determine funding eligibility as appropriate.
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Performance objectives to be determined by the student and instructor.

    Outline:
    Content to be determined by the student and instructor.

    Effective Term:
    Spring 2010

Automated Industrial Technology

  
  • AIT 100 - Industrial Safety

    1 Credits, 1 Contact Hours
    1 lecture period 0 lab periods

    Introductory course in workplace safety training. Includes critical safety policies, procedures, and practices that help prevent injuries and keep the workplace safe and productive.

    Information: BCT 110  may be substituted for AIT 100.
    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage



    Course Learning Outcomes
    1. Demonstrate knowledge of safety, health, and environmental rules and regulations to avoid workplace injury and maximize machine productivity. 

    2. Demonstrate knowledge of electrical safety standards and electrical procedures to safely maintain industrial equipment. 

    3. Demonstrate knowledge of safety practices of mechanical and fluid-controlled systems to safely maintain industrial equipment. 

    4. Demonstrate knowledge of proper fall protection. 

    5. Select appropriate Personal Protective Equipment (PPE) for various industrial safety situations. 

    6. Demonstrate the appropriate use of Personal Protective Equipment (PPE) for various industrial safety situations.


    Outline:
    I. Demonstrate knowledge of safety, health, and environmental rules and regulations to avoid workplace injury and maximize machine productivity.

    A. Occupational Safety and Health Administration (OSHA), National Institute for Occupational Safety and Health (NIOSH), Environmental Protection Agency (EPA), and other federal and state safety requirements for the workplace.

    B. Common industrial hazards per OSHA standards

    1. Ergonomics

    2. Laser safety

    3. National Fire Protection Association (NFPA) arc flash

    4. Confined space hazards and safety practices

    C. Locate a Safety Data Sheet (SDS), interpret the information

    D. Hazardous situations (i.e. apply proper procedures to the situation)

    E. The process to perform a job safety analysis

    F. Fuel source and selection of correct fire extinguisher class

    G. Procedures to avoid oil fire hazards

    H. Safely store and dispose 

    1. Lubricants

    2. Maintenance chemicals

    II. Demonstrate knowledge of electrical safety standards and electrical procedures to safely maintain industrial equipment. 

    A. Lockout/tagout (LOTO) test out program

    1. LOTO process

    2. Test to ensure a zero energy state

    B. National Electrical Code (NEC) safety regulations 

    C. NFPA 70E arc flash guidelines (i.e. their importance)

    D. Safety procedures

    1. Tightening electrical conductors and components

    2. Disconnecting electrical conductors and components

    3. Connecting electrical conductors and components

    4. Hazards and avoiding personal contact with live electrical systems

    5. Guidelines on the safe approach distances while working on electrical systems

    6. Disconnecting electronic components

    7. Connecting electronic components

    8/.Standards to adhere to grounding safety procedures

    III. Demonstrate knowledge of safety practices of mechanical and fluid-controlled systems to safely maintain industrial equipment.

    A. Lockout/tagout (LOTO) test out program

    1. LOTO process

    2. Test to ensure a zero energy state

    B. Machine guarding for mechanical power transmission systems purpose

    C. Required machine guarding for fluid power systems

    D. Safe procedures for removing:

    1. Stored hydraulic or pneumatic energy

    2. Systems with accumulators and compressed air reservoirs

    E. Dangers of personal contact:

    1. Pressurized hydraulic

    2. Pneumatic streams

    F. Guidelines to avoid contact with hot surfaces in fluid power systems

    IV. Demonstrate knowledge of proper fall protection.

    A. Working at heights

    B. Sling ladders, scaffolding, and lifts

    C. Unguarded leading edges

    D. Open holes

    E. Improper guardrails

    F. Damaged equipment (ladders, stairs, safety equipment, etc.)

    G. Slippery conditions

    H. Unmarked elevation changes

    V. Identify, select and demonstrate the use of Personal Protective Equipment (PPE)

    A. Identify and describe the four Basic Types of PPE

    1. Face and Eye Protection

    2. Respiratory Protection

    3. Skin and Body Protection (head, foot & hand)

    4. Hearing Protection

    B. Select appropriate personal protective equipment per job


    Effective Term:
    Fall 2022

  
  • AIT 105 - Modern Maintenance Operations

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Introductory course into the practice of modern maintenance operations. Includes correct and safe usage of maintenance tools (e.g., hand tools, power tools), measuring instrumentations (e.g., tape, caliper, micrometer) and reading various engineering documents (e.g., blueprints, flowcharts, parts diagrams). Also includes the use and conversion of units in SI and imperial. Includes basic discussion of industrial safety procedures, machine operations, troubleshooting, failure analysis, modern maintenance principles, rigging, workplace organization, and records keeping.

     

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage



    Course Learning Outcomes
    1. Apply knowledge of machine maintenance and operation procedures and effects on factory outputs including machine operation, safety systems, e-stops, lock-out test-out tag-out, startup, shutdown, manual functions, maintenance practices and procedures, troubleshooting methodologies, Overall Equipment Efficiency (OEE) calculations, and measurements.
    2. Describe the different documents related to maintenance operations and their responsible parties including operators manuals, exploded parts diagrams, service manuals, flowcharts, maintenance procedure, Standard Operating Procedures (SOPs), Safety Data Sheets (SDS), blueprint part and assemblies drawings with tolerances and basic Geometric Dimensioning and Tolerancing (GD&T).
    3. Demonstrate the proper use of legacy and modern tools to perform maintenance operations including rigging tools, hand tools, power tools, and measuring tools.

    Outline:
    I. Machine maintenance, operation, and effects

    A. Safe machine operation for production and maintenance  

    1. Safety checklist:

    a. Ready/come online

    b. Correct operation of safety devices

    c. Check operation of machine interlocks

    2. Operation scenarios

    Startup

    a. Emergency shutdown

    b. Scheduled shutdown

    c. Manual functions

    3. Machine malfunction definition

    4. Standard operating procedures definition

    5. Machine shutdown indicators  procedures

    6. Lockout process aka “Lock-out, Tag-out, Test-out”

    7. Modern and legacy machine safety systems

    a. Guards: physical and passive

    b. Interlocks: physical and passive

    8. E-stop categories: 1,2,3.

    9. Monitoring machines for production performance 

    10. Confirming machine operations within specifications

    11. Observation of machine operation and vibration via five senses

    a. Correct machine operation

    b. Malfunction symptoms 

    12. Evaluation of an operator’s adherence to machine procedures

    13. Leaks, dirt, and loose connections

    14. Measurement readings

    a. Pressure gauge

    b. Flowmeter

    c. Fluid level

    d. Temperature gauge

    e. Voltage

    f. Current

    15. HMI for machine monitoring

    16. Machine operation meets documented performance specifications 

    17. Documentation of  machine operation history (manual log or computer database)

    B. Machine maintenance procedures 

    1. Planned and unscheduled machine maintenance procedures 

    2. Total productive maintenance (TPM) 

    a. Definition

    b. Preventative maintenance

    i. Definition

    ii. Benefits

    iii. limitations, 

    c. Predictive maintenance

    i. Definition 

    ii. Benefits

    iii. Limitations

    d. Total company buy-in

    e. Maintenance and production communication procedures 

    3. Use of Computer Maintenance Management Systems (CMMS)

    4. Work orders

    a. Reading

    b. Interpretation

    c. Resolution

    5. Autonomous maintenance

    6. Elements of a comprehensive maintenance plan

    7. Methods of eliminating unplanned maintenance events

    8. Types of preventive, planned/unplanned, and predictive maintenance procedures and tasks

    9. Contamination removal

    a. Source identification

    b. Removal methods

    10. Predictive maintenance plan

    11. Types of predictive maintenance methods and their applications using basic senses (hearing, feeling, smell, sight) and their techniques:

    a. Vibration analysis

    b. Thermography

    c. Oil analysis

    d. Acoustic analysis

    e. Motor current analysis.

    f. Performing predictive maintenance

    C. Troubleshooting methodologies

    1. Methodologies to isolate problems to a particular sub-system, part, or a piece.

    a. 5-why

    b. Fishbone

    c. Flow charts

    d. Half-split method

    e. Root Cause Failure Analysis (RCFA)

    f. Parts diagrams

    g. Troubleshooting flow charts

    2. Effective interpersonal skills

    a. Production personnel

    b. Vendors

    c. Other colleagues

    3. Effective observation and interview strategies

    a. Problem validation

    b. Troubleshooting strategy determination

    4. Document analysis

    a. Production information documents

    b. Maintenance documents

    c. Operation documents

    5. Troubleshooting flowchart

    D. Workplace organization methods

    1. Toyota Production System? (TPS)

    2. 5S

    3. 6S

    4. Lean manufacturing

    5. Kizens

    E. Overall Equipment Efficiency (OEE) calculations & measurements

     

    II. Maintenance operations documents

    A. Machine operation and maintenance documentation

    1. Methods of storing machine operation and maintenance documentation 

    2. Locating and interpreting documents

    a. Machine operation in Manual and Auto modes 

    i. Identification of safety requirements and features 

    ii. Performance specifications

    iii. Standard operating procedures

    iv. Startup/shutdown procedures

    3. Spare parts lists, vendor sources, and maintenance procedures

    4. Machine operation history logs

    a. Computer-based

    b. Manual

    c. Safety data sheets

    d. Machine operating history from an HMI database

    B. Machine lubrication and preventive maintenance schedules

    1. Company documentation

    2. Machine manufacturer documentation

    C. Reading and interpreting technical drawings 

    1. Line types

    a. Part

    b. Hidden

    c. Center

    d. Section

    e. Breakout Section

    2. Basic symbology

    3. Multi-view drawings of cylindrical and prismatic shaped parts

    a. 1st angle projection

    b. 3rd angle projection

    4. Metric and English dual dimension standards/types

    5. Dimension lines for linear, circular, and angular dimensions.

    6. Title blocks

    7. Feature sizes using a drawing scale

    8. Standard dimensional tolerance

    9. Geometric Dimensioning and Tolerancing (GD&T) per American Society of Mechanical Engineers (ASME) Y14.5

    a. Datums, MMC, LMC

    b. Feature control frames

    c. Symbols, and use of: Form, Profile, Orientation, Location, Runout

    10. Assembly drawings with Bill of Materials

    11. Blueprints

     

    III. Legacy and modern tools 

    A. Rigging tools

    1. Types of tools

    2. Basic concepts and calculations of force, weight, volume, center of gravity, rated load, safety factors, and crush force

    3. Rigging safety

    a. Load capacity description and demonstration

    b. Inspection points, defects, damage, and contamination

    Corrective action

    c. Proper use of eyebolts and shims for lifting parts

    d. Proper containment methods to storage

    4. Basic rigging components and techniques

    a. Slings

    b. Chains

    c. Wire-ropes

    d. Come-a-longs

    e. Blocking

    f. Hoist

    g. Cranes 

    5. Heavy load movement

    a. Horizontal movement 

    i. Rollers

    ii. Come-a-longs

    iii. Dolly

    iv. Pry-bar

    v. Truck

    vi. Skates

    b. Vertical movement

    i. Manual and powered hoists 

    ii. Chain hoist 

    iii. Jacks

    iv. Pry-bar

    B. Hand tools

    1. Threaded and non-threaded fasteners

    a. Système international (SI) & Imperial (US) fasteners (bolts), washers, pins, nuts, and locking devices

    i. Nomenclature 

    ii. Identification by visual inspection and measurement

    1. Types 

    2. Length

    3. Diameters (I.D., O.D., Major D., Minor D.)

    4. Thread pitch

    5. Thread tolerance

    iii. Failure modes

    iv. Construction

    v. Strength

    b. Force, torque, press fits,

    i. Dynamic and static torques

    ii. Assembly tolerances and interference fit 

    c. Proper fastener selection

    d. Methods to protect parts, hardware, and components during handling and storage.

    2. Basic hand tool safety rules and application for use and OSHA standards  (decibel noise limits).

    3. Proper use of Common Hand tools

    a. Screw Divers

    b. Nut Drivers

    c. Hex Drivers

    d. Wrenches;

    i. Boxed end

    ii. Open end

    iii. Adjustable

    iv. Ratcheting

    e. Ratcheting socket wrenches

    i. ¼ Drive

    ii. ⅜ Drive

    iii. ½ Drive 

    iv. Crows Foot

    f. Pliers

    i. Needle nose

    ii. Slip joint aka standard

    iii. Tongue and groove aka adjustable pliers

    iv. Locking, aka channel-lock

    Safety wire twisting aka safety wire pliers

    g. Clamps

    i. C-clamp

    ii. Trigger clamp

    iii. Spring clamp

    iv. Bench vice

    h. Mallets

    i. Cordless, electric brushless powered hand tools

    i. Drills with keyless chucks and clutch settings

    ii. Hex impact drivers

    iii. Square drive impact drivers

    iv. Legacy drills with key chucks

    4. Assembling parts

    a. Types

    i. Threaded fasteners

    ii. Washers

    iii. Nuts

    iv. Pins

    v. Keys

    vi. Clips

    vii. Snap rings

    viii. Roll pins

    ix. Tie-wraps (safety-wire)

    b. Tightening parts

    i. Bolt pattern sequence correction

    ii. Torque correction with click type torque wrench

    C. Measurement Tools

    1. Metric and inch pocket rulers and tape rulers

    a. Common inch fractional scales: 

    i. 64th scale

    ii. 32nd scale

    iii. 16th scale

    iv. 8th scale

    b. Common inch decimal scales

    i. 64th scale

    ii. 50th scale

    iii. 32nd scale

    iv. 16th scale

    v. 10th scale

    vi. 8th scale

    c. Common metric decimal scales 

    i. 10th scale

    ii. 50th scale 

    2. Metric unit conversions

    a. Micrometer

    b. Millimeter

    c. Centimeter

    d. Kilometer

    e. Megameter

    3. Imperial and metric unit conversions  

    4. Tool selection

    a. Calipers

    i. Digital

    ii. Analog

    b. Micrometers

    i. Digital

    ii. Vernier (Analog)

    c. Dial indicator

    5. Accurate use and measurement tool concepts

    a. Accurate use

    i. Resolution

    ii. Repeatability

    iii. Error types

    b. Measurement tool concepts

    i. Calibration

    ii. Total Indicated Run-out (TIR)

    iii. Flatness

    iv. Indirect measurement

    v. Other features


    Effective Term:
    Fall 2022

  
  • AIT 110 - Mechanical Power Transmission Systems

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Introductory course in how to transmit, measure, calculate and work safely with rotational mechanical equipment. Hands-on assembly, alignment, maintenance, and troubleshooting of mechanical power transmission systems and components e.g., belts, bearings, chains, dynamometers, gears, pulleys, couplings, bushings, and sprockets.   Introduction to lubricant and grease types, their standards, safety, and application.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Perform installation, alignment, tension check, and adjustment on mechanical power transmission components. 
    2. Apply troubleshooting techniques to mechanical power transmission systems, including shaft couplings, chain drives, gear drives, and belt drives. 
    3. Perform performance measurements and calculations for horsepower, torque and power.
    4. Apply the correct lubricant to identified lubrication points on a machine according to its maintenance schedule.

    Outline:
    1. Mechanical power system installation, alignment, and adjustment
      1. Motor mount
        1. Soft foot correction
        2. Motor leveling
      2. Measuring motor shaft speed using a tachometer
      3. Correct coupling installation
        1. Flexible
        2. Flange
        3. Grid
        4. Chain 
      4. Manufacturer’s specifications for component for proper installation, measurement, and adjustment
        1. Couplings
        2. Shaft alignment techniques
          1. Feeler gauge
          2. Straight edge
          3. Rim and face
          4. Dial indicator
          5. Laser alignment equipment
        3. V-belt drive components
          1. Sheaves and V-belts 
          2. V-belt drive and straight edge alignment 
            1. Use of tension tool
            2. Adjustable motor mount
          3. Tensioning the V-belt drive 
          4. Multi belts with match code
        4. Sprockets and chains
          1. Alignment of chain drive with straight edge
          2. Checking tension of a chain drive with straightedge and rule
          3. Tensioning a chain drive by positioning the prime mover
        5. Bushings: 
          1. Split taper
          2. QD
          3. Taper lock bushings
        6. Timing belt or HTD belt
        7. Spur gear drive and right angle gear drive
          1. Attachment to shafts
          2. Aligning gear drive using a straight edge
          3. Backlash check of gears with dial indicator
        8. Pillow block and flange block bearing
    2. Troubleshooting, visual inspection, wear analysis, and malfunction identification
      1. V-belt drive
      2. Chain drive
      3. Gear drive
      4. Pillow block bearing
      5. Synchronous/timing belt
      6. Couplings
    3. Horsepower, torque and power
      1. Types and functions of Dynamometers aka “Dyno”
        1. Prony brake 
        2. Electric motor/generator
        3. Water break
      2. Tool selection and application to measure motor shaft speed, horsepower, torque, and power
      3. Calculating horsepower, power, and efficiency by applying a load to a motor
      4. Mathematical calculations for horsepower, torque, gear ratios, speed, and efficiency
    4. Lubrication
      1. Lubrication plan
      2. Oil and grease lubrication points 
      3. Correct lubricants given specifications and experience
      4. Safe handling and storage of lubricants
      5. Lubrication of bearings using Zerk fittings
      6. Operation of a grease gun
        1. Changing cartridges
        2. Priming
      7. Automatic lubricators
        1. Inspection
        2. Fill
      8. Lubrication oil
        1. Origins
        2. Manufacturing
        3. Grades
        4. Usage
        5. Additives 
        6. Viscosity
        7. Viscosity index
        8. Standards
      9. Lubricating grease
        1. Origins 
        2. Manufacturing 
        3. Grades 
        4. Usage 
        5. Additives
        6. Standards
      10. Purpose of vent plugs
      11. Purpose of additives, viscosity, and viscosity index
      12. Effects of over and under lubrication of bearings


    Effective Term:
    Fall 2022
  
  • AIT 115 - Hydraulic Systems

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Introductory course in the principles of hydraulic system operation, components construction, maintenance, troubleshooting, and operation, as well as the role of the individual components in an operating hydraulic system. Includes hydraulic fitting and seals, accumulators, cylinders, directional control valves (DVC), relief valves, check valves, pumps, filters, hoses, and a variety of hydraulic control circuits.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Interpret hydraulic schematics, including identifying schematic symbols, process flow, and operation of the components and systems.
    2. Operate hydraulic systems, including the adjustment of hydraulic pressure control valves in the given hydraulic systems.
    3. Perform maintenance on hydraulic components, including inspection, removal, and replacement.
    4. Install components of hydraulic systems.
    5. Test components of hydraulic systems.
    6. Troubleshoot malfunctioning components of hydraulic systems.

    Performance Objectives:
    1. Employ mechanical fabrication procedures.

    Outline:
    1. Basic hydraulic schematics for operation of components/systems
      1. Basic hydraulic components 
        1. NFPA schematic symbols
        2. ISO schematic symbols
      2. Operation of circuits
        1. Single stage hydraulic directional control valves with manual and electrical operators
        2. Two stage hydraulic directional control valves with manual and electrical operators
        3. Types of spool centers: 2-position/3-position and 2/3/4 way designs
      3. Operation of hydraulic circuits 
        1. Accumulators 
        2. Pump uploading 
        3. Remote pressure control 
        4. Rapid traverse slow feed
        5. Pilot-operated check valves
      4. Interpretation of hydraulic line types on a schematic
      5. Operation of a basic hydraulic circuit given a schematic
    2. Start Up/shut down of a hydraulic system
      1. Safe start up of a hydraulic power system (including pre-start inspection)
      2. Safe shut down of a hydraulic power system 
      3. Manufacturers documentation per specific application to determine correct operating pressure
      4. Reading pressure gauges
      5. Adjusting system operating pressure using a relief valve
      6. Manual valves operation to direct system flow
      7. Adjusting pressure of a pressure reducing valve
      8. Adjusting system operating pressure
      9. Pressure-flow characteristics
        1. Relief valves
        2. Direct and pilot operated
      10. Operation
        1. Double acting cylinder
        2. Motor
        3. Hydraulic sequence valve
        4. Pressure reducing valve
      11. Pressure-flow characteristics of displacement pumps
        1. Fixed
        2. Variable
      12. Pressure checks and charge accumulators
      13. Pressure versus force/torque output characteristics of cylinders and motors
      14. Using Pascal`s law to determine system pressure and volume
    3. Hydraulic actuator speed 
      1. Actuator speed adjustment
        1. Needle valve
        2. Non-compensated flow control valves
        3. Compensated flow control valves
      2. Flow control valves adjustment in meter-in and meter-out configurations
      3. Measuring actuator speed
      4. Operation
        1. Needle valve 
        2. Flow control valve
        3. Compensated flow control valve
        4. Meter-in circuits
        5. Meter-out circuits
      5. Flow vs. speed characteristics of a hydraulic cylinder and a motor
      6. Calculating pump flow rate requirements given actuator speeds and sizes
      7. Calculating pump flow rate given pump size and speed
    4. IV. Hydraulic filters and maximizing hydraulic fluid cleanliness
      1. Inspection of hydraulic filters
      2. Interpreting filter specifications/models to determine correct filter
      3. Manufacturer’s documentation to determine frequency of change
      4. Measuring pressure differential across a filter
      5. Replacement of filters based on pressure differential across the filter
      6. Filter removal and replacement
        1. Symptoms of a required strainer
        2. Strainer replacement
    5. Hydraulic fluid
      1. Inspecting fluid levels using a level gauge
      2. Adding fluid to a hydraulic system
      3. Replacing hydraulic fluid using a filter cart
      4. Fluid inspection through sight, touch, and smell
      5. Fluid inspection for water and visible contaminants
      6. Water and contaminants removal from a hydraulic system
        1. Flushing
        2. Refilling
        3. Other 
      7. Interpreting manufacturer`s documentation to determine appropriate oil selection
      8. Fluid sampling
        1. Taking fluid sample 
        2. Submission to testing lab
      9. ISO 4406 cleanliness standards
    6. VI. Connecting, adjusting, and disconnecting flexible and rigid hydraulic conductors
      1. Interpreting pipe, hose, and tubing specifications
      2. Identification of type and size of hose, tubing, and hydraulic fittings (given a sample)
      3. Safety procedures for pressure removal before disconnecting conductors
      4. Proper fitting tightening, including consequences of over-tightening
      5. Attaching and tightening hydraulic components using line wrenches
        1. Hydraulic steel tubing 
        2. Hydraulic fittings to components with threaded ports, using applicable thread sealant
        3. Hydraulic hoses and swivel fittings
        4. Hydraulic hoses and straight thread O-ring fittings
      6. Adjusting the position and alignment of conductors for proper operation
      7. How to make a hydraulic hose using barbed fittings
      8. O-rings
        1. Operation
        2. Installation
        3. Specification
    7. Operation of components in a basic hydraulic linear or rotary actuator 
      1. Installing/connecting hydraulic components in basic functional circuit given a schematic
      2. Replacing subplate-mounted directional, flow, and pressure control valves in a hydraulic system
      3. Replacing a threaded port valve
      4. Mounting/aligning a hydraulic cylinder and a motor
      5. Types and applications of cylinder and motor mounting methods
      6. Analyzing the proper operation of a hydraulic system 
      7. Bleeding procedures of a hydraulic system after component replacement
    8. Troubleshooting a basic hydraulic linear or rotary actuator circuit
      1. Basic components in a hydraulic circuit using in-circuit tests troubleshooting
      2. Using flow and pressure instruments to take hydraulic circuit readings during in-circuit testing
      3. Flow vs. pressure drop characteristics of components and conductors and their impact on          system operation
      4. Systematic methodologies to troubleshoot basic hydraulic circuits with linear and rotary actuators
      5. Types of failure of basic hydraulic components


    Effective Term:
    Fall 2022
  
  • AIT 120 - Pneumatic Systems

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

     Introductory course in the principles of pneumatic system operation, components construction, maintenance, troubleshooting, and operation, as well as the role of the individual components of an operating pneumatic system. Includes pneumatic fitting, seals, accumulators, actuator/cylinders, directional control valves (DVC), manifolds, relief valves, check valves, pumps, filters, regulators, dryers, and common pneumatic control circuits.   

    Button linking to AZ Transfer course equivalency guide   

    Course Learning Outcomes
    1. Interpret pneumatic schematics, including identification of schematic symbols, process flow, and operation of the components and systems.
    2. Operate a pneumatic system, including adjustment of pneumatic pressure control valves in the given hydraulic systems.
    3. Perform maintenance of pneumatic components, including inspection, removal, and replacement.
    4. Install components of pneumatic systems.
    5. Test components of pneumatic systems.
    6. Troubleshoot malfunctioning components of pneumatic systems.

    Outline:
    1. I. Interpreting schematic(s) and component symbols
      1. National Fluid Power Association (NFPA) schematic symbols
      2. International Organization for Standardization (ISO) schematic symbols
    2. Operating a pneumatic system
      1. Determining/adjusting pneumatic system operating pressure using a regulator
      2. Operation of relieving and non-relieving pneumatic regulators
      3. Pressure vs. force/torque output characteristics of cylinders and motors
      4. Pascal`s law and reading system pressure
      5. Interpreting and converting air pressure units of measure
      6. Compressibility characteristics of air and their impact on system operation
      7. Operation of circuits
        1. Pneumatic directional control valves with manual and electric operators
        2. Directional control valve types
          1. Spool centers
          2. 2-position
          3. 3-position
          4. Pilot operated
          5. Cam-operated
        3. Directional valve port configurations       
      8. Reading a pressure gauge
      9. Adjusting pneumatic regulator pressure 
      10. Manufacturers’ documentation to determine correct operating pressure
      11. Operation of a branch shutoff valve to enable flow to a system branch
    3. Selecting and adjusting pneumatic actuator speed using a flow control valve
      1. Operation
        1. Needle valve
        2. Flow control valve
        3. Meter-in circuits
        4. Meter-out circuits
      2. Flow vs. speed characteristics of a pneumatic cylinder and a motor
      3. Effect of system pressure on pneumatic actuator speed
      4. Adjusting actuator speed
        1. Needle valve
        2. Flow control valve
        3. Manifold mounted flow control valves
      5. Adjusting flow control valves in meter-in/meter out configurations
      6. Measuring actuator speed
    4. IV. Inspecting, draining, and changing a pneumatic filter
      1. Replacing a cartridge filter
      2. When to replace a filter
        1. Inspection
        2. Pressure differential
        3. Manufacturer`s recommendations
      3. Interpreting filter specifications/models to determine correct filter
      4. Manufacturer`s documentation to determine frequency of change
      5. Operating the drain on a pneumatic filter
      6. Operating water removal systems on a pneumatic filter
      7. Recognizing symptoms of excessive water in a compressed air system
      8. Manifold types, construction and purposes
      9. Dryers types, construction and purpose
    5. Inspecting, filling, and adjusting a pneumatic lubricator
      1. Manufacturers’ documentation to determine correct lubricant
      2. Proper lubricating media definition
      3. Inspecting fluid level in a lubricator
      4. Adding lubricating oil to a lubricator
      5. Setting lubrication rate on a lubricator
    6. Connecting, adjusting, and disconnecting flexible and rigid pneumatic conductors
      1. Safety procedures for pressure removal before disconnecting conductors
      2. Attaching/tightening
        1. Steel tubing
          1. Various wrench types
          2. Ferrule fittings
        2. Fittings to components
          1. Threaded and unthreaded ports
          2. Appropriate wrenches 
          3. Appropriate sealant use 
          4. Appropriate O-ring use
        3. Hose fittings
          1. Wrenches and straight-thread
          2. Barb
          3. Ferrule
          4. Push-on 
      3. Position/alignment of conductors for proper operation
      4. Interpreting pipe, hose, and tubing specifications
      5. Identification of type and size of hose, tubing, and fittings (given a sample)
      6. Identification of fittings and application (given a sample) and limitations for use of each
    7. Operating an air compressor
      1. Types of air compressors
      2. Calculating air consumption from a receiver given a pressure change
      3. Interpreting/converting between air flow rate units
      4. Safe start up of an air compressor system, including pre-start inspection
      5. Safe shut down and drainage of a reciprocating air compressor system
      6. Operating manual valves to direct system flow
      7. Manufacturer`s documentation to determine correct operating pressure
      8. Adjusting the cut in and cut out pressure switch for system pressure
      9. Adjusting working pressure with a regulator
    8. Installation and testing of basic pneumatic linear or rotary circuits 
      1. Installing and connecting pneumatic components in basic functional circuits given a schematic
      2. Replacing subplate-mounted directional valve in a pneumatic system
      3. Replacing a threaded port valve
      4. Mounting and aligning a pneumatic cylinder or a motor 
      5. Testing a pneumatic system to determine that it is performing correctly
      6. Types of cylinder and motor mounting methods and their applications
    9. Installation and testing of basic pneumatic circuits that use vacuum generators
      1. Installing and connecting a vacuum generator and vacuum cups given a schematic
      2. Interpreting vacuum units of measurement
      3. Pascal’s law in relation to vacuum
      4. Calculating lifting force of a vacuum cup given vacuum level and manufacturer`s data
      5. Common hose types, fittings, and sealants used in vacuum applications
      6. Types of vacuum systems and safeguards
    10. Troubleshooting basic pneumatic linear or rotary circuits
      1. Basic components
      2. In-circuit troubleshooting tests
      3. Flow and pressure instruments to take readings during in-circuit testing
      4. Flow vs. pressure
        1. Drop characteristics of pneumatic components and conductors
        2. System operation impact
      5. Systematic methodologies
      6. Types of failures of basic pneumatic components


    Effective Term:
    Fall 2022
  
  • AIT 125 - DC and AC Components

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    An introductory course in AC and DC electric theory. Includes electric circuits using resistors, capacitors, and inductors. Also includes solenoids, relays, transformers, basic DC and AC motors, circuit protection devices, and a variety of switches.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage



    Course Learning Outcomes
    1. Analyze electrical circuit diagrams by identifying circuit components, voltages, currents and power. 
    2. Describe the operation of control and sensing components such as limit switches, pressure switches, float switches and proximity sensors when used as interrupters in a circuit. 
    3. Demonstrate the use of a multimeter to measure voltage, current and resistance in a circuit and to troubleshoot basic electrical problems. 
    4. Select circuit protection devices such as fuses, ground fault circuit interrupters (GFCI) and circuit breakers. 
    5. Test circuit protection devices such as fuses, GFCI and circuit breakers. 
    6. Identify the basic use of a multimeter to find basic electrical faults in components such as resistors, capacitors, inductors/solenoids, relays, transformers and electric motors.

     


    Outline:
    1. Reading and interpreting electrical circuit diagrams
      1. Fundamental electrical theory 
        1. Electric charge
        2. Resistance
        3. Electric current 
        4. Voltage
        5. Magnetism
      2. Schematic symbols
      3. Operation of components   
      4. Electrical components identification
      5. Ohm’s Law 
      6. Kirchoff’s Circuit Laws
        1. Kirchoff’s Voltage Law (KVL)
        2. Kirchoff’s Current Law (KCL)  
      7. Analysis of circuits
        1. Series circuits
          1. Resistors
          2. Capacitors
          3. Mathematical formulations and calculations
          4. Current flow
          5. Voltage drops
          6. Combinations of components in circuits
        2. Parallel circuits
          1. Resistors
          2. Capacitors
          3. Mathematical formulations and calculations
          4. Current flow
          5. Voltage drops
          6. Combinations of components in circuits
        3. Circuits with inductors
          1. Measuring inductive reactance
          2. Mathematical formulations and calculations
          3. Current flow
          4. Voltage change
          5. Combinations of components in circuits
        4. Circuits with transformers
          1. Measuring resistance
          2. Sizing
          3. Mathematical formulations and calculations
          4. Current load
          5. Voltage change
          6. Turns ratio      
    2.  Sensor and switch function and application 
      1. Capacitive sensor
      2. Inductive sensor
      3. Photoelectric sensor
      4. Magnetic reed switch
      5.  Limit switch
      6. Float switch
      7. Pressure switch
    3. Multimeter use for electrical measurement
      1. Voltage
      2. Current
      3. Resistance
      4. Continuity check
      5.  Clamp meters
    4. Circuit protection components
      1. Fuse and circuit breaker selection in accordance with National Electrical Code (NEC)
        1. Determining wire size
        2. Determining wire ampacity
      2. Fuse types and uses
      3. Fuse testing procedures
      4. Circuit breaker testing procedures
      5. Operation of Ground-Fault Circuit Interrupters (GFCIs)
    5. Multimeters and electrical troubleshooting
      1. Testing resistors
        1.  Rated value
        2. Opens
        3. Shorts
      2. Testing capacitors
        1. Rated value
        2. Opens
        3. Shorts
      3. Testing inductors
        1. Rated value
        2.  Opens
        3. Shorts
      4. Testing relays
        1. Coils
        2. Contacts
        3.  Function
      5. Testing solenoids
        1. Coils
        2. Function
      6. Testing transformer windings
        1. Opens
        2. Shorts
        3. Primary to secondary isolation
        4. Resistance
      7. Testing electric motor windings
        1. Opens
        2. Shorts
        3. Winding insulation resistance
    6. Electric Motors
      1. DC electric motors
      2. Single phase AC motors
    7. VII. Electric wiring 
      1. Wiring color code
      2. Wire gauge


    Effective Term:
    Fall 2022

  
  • AIT 135 - Electronics Assembly & Fabrication I

    3 Credits, 4 Contact Hours
    2 lecture periods 2 lab periods

    Fundamental principles of assembly and manufacture of electronics. Includes electronics safety, hand and power tool usage, measure tools, quality control/Statistical Process Control, and ElectroStatic Discharge (ESD). Also includes clean room procedures, electronics print reading, wiring harnesses, soldering, desoldering and rework, cleaning, prototyping, and high volume production methods.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage



    Course Learning Outcomes
    1.         Demonstrate safe electronic/electrical work procedures.

    2.         Use common basic hand and power tools.

    3.         Demonstrate skill in various methods of soldering.

    4.         Describe electronic components and their function.

    5.         Explain Electrostatic Discharge (ESD) and how to avoid damage caused by it.

    6.         Demonstrate appropriate procedures for working in a clean room environment.


    Outline:
    1. Electronics Safety
      1. Lockout/Tagout
      2. Personal Protective Equipment
      3. Associated hazards for electrical/electronic work
        1. Electric shock/burns
        2. Striking by moving/flying objects
        3. Lifting
        4. Chemical/hazardous materials/MSDS
        5. Fire
      4. Grounding, insulated tools, ground fault circuit interrupt protection
      5. Emergency response and first aid
    2. Electronic Components
      1. Resistors
      2. Inductors and capacitors
      3. Diodes and transistors
      4. Semiconductor devices
      5. Microprocessors/microcontrollers
      6. Transformers and power supplies
      7. Circuit protection
      8. Connectors and terminals
    3. Electronics Prints/Schematic Reading
      1. General print principles
      2. Electrical and electronic schematics
        1. Symbols
        2. Connections
        3. Layouts
        4. Example schematics of common devices
    4. Electrostatic Discharge (ESD), Product and Component Handling
      1. Definitions
      2. Why it matters
      3. Prevention equipment and methods
      4. Electronics packaging
      5. Handling
    5. Cleanroom Procedures
      1. Description
      2. Classes of cleanroom, when and how used
      3. Acceptable and restricted/prohibited materials
      4. Attire and proper methods for putting on and removing
    6. Hand and Power Tools Used in Electronic/Electrical Assembly
      1. Common tools
      2. Proper use and care
      3. Safety considerations
    7. Soldering
      1. Manual soldering
        1. Solders, fluxes
        2. Soldering equipment
        3. Through hole
        4. Surface mount
      2. Automated soldering
        1. Wave
        2. Dip
        3. Robotic
    8. Desoldering and Rework
      1. Tools
      2. Methods
    9. Assembly Cleaning
    10. Prototyping
      1. Bread boards
      2. Prototyping
      3. Perfboard and solder
      4. Generic printed circuit board
      5. “Dead Bug”
      6. Custom printed circuit board

     


    Effective Term:
    Full Academic Year 2019/20

  
  • AIT 205 - Power Electronics and Variable Frequency Drives

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Introductory course in AC and DC power electronic theory. Includes power supplies, power conditioning, solid-state power devices, and power control circuits. Also includes proximity sensors, analog thermal sensors, control feedback loops, and the setup and operation of VFDs.

    Prerequisite(s): AIT 125  
    Button linking to AZ Transfer course equivalency guide  



    Course Learning Outcomes
     

    1. Evaluate discrete electronic components such as diodes, bipolar transistors, field-effect transistors (FETs), silicon controlled rectifiers (SCRs), and insulated-gate bipolar transistors (IGBTs). 
    2. Install discrete electronic components such as diodes, bipolar transistors, field-effect transistors (FETs), silicon controlled rectifiers (SCRs), and insulated-gate bipolar transistors (IGBTs). 
    3. Test the operation of discrete electronic components such as diodes, bipolar transistors, field-effect transistors (FETs), silicon controlled rectifiers (SCRs), and insulated-gate bipolar transistors (IGBTs). 
    4. Install solid-state alternating current (AC) and direct current (DC) relays. 
    5. Test solid-state AC and DC relays. 
    6. Install discrete and analog sensors. 
    7. Adjust discrete and analog sensors. 
    8. Test discrete and analog sensors. 
    9. Install a VFD motor drive system. 
    10. Operate a VFD motor drive system.

    Outline:
    1. Discrete electronic components

      1. Operations of diodes
        1. Positive/Negative (PN) junction diodes
        2. Light emitting diodes (LEDs)
        3. Zener diodes
        4. Voltage regulators
      2. Half wave and full-wave rectifiers
      3. Capacitive, inductive, and resistive power filters
      4. Operations of transistors and rectifiers
        1. Bipolar
        2. Field-effect transistors (FET)
        3. Silicon-controlled rectifiers (SCRs)
      5. Operation of linear and switching power supplies
        1. Connecting
        2. Testing
        3. Measuring output    
    2. Solid-state discrete and analog relays

         A. Sourcing and sinking circuits

         B. Installing

         C. Testing

         D. Operation 

         E. Failures

         F. Styles

         G. Mountings

         H. Schematic symbols 

         I. Specifications

    3. Discrete and analog sensors 

        A. Installing

        B. Testing and adjusting output signals

            1. Proximity sensors

            2. Analog thermal sensors

        C. Interpreting specifications

            1. Discrete sensors 

            2. Analog sensors

    4. VFD motor drive system

        A. Theories of operation with motor control

        B. Function and use of common parameters

        C. Alarms

              1. Diagnosis

              2. Priority

        D. Grounding ring

            1. Purpose

            2. Proper installation

        E. Connections and operation

            1. With AC motor

            2. With relay control circuit

        F. Using an onboard Human Interface Module (HIM)



    Effective Term:
    Fall 2022

  
  • AIT 210 - Programmable Logic Controller Programming and Troubleshooting

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    Introductory course in Programmable Logic Controller (PLC) Ladder Logic programming and troubleshooting PLC connected components and systems. Includes basic Human Machine Interface (HMI) navigation, connecting to a PLC, and program downloading. 

    Prerequisite(s): AIT 205  or concurrent enrollment.
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Identify the components of a PLC, the principles of PLC operation, and the main PLC applications.
    2. Demonstrate the ability to transfer programs to and from a PLC. 
    3. Develop simple PLC ladder logic programs to demonstrate the use of instructions, such as relay, branch, counters, timers, and logic instructions. 
    4. Install and test a PLC.  
    5. Connect an HMI to a PLC. 
    6. Troubleshoot PLC field device components and system issues by interpreting PLC programs and hardware failures.

    Outline:
    1. PLC basics
      1. Basic operation of a PLC
      2. Basic operation and navigation of PC software for PLCs
      3. Nomenclature for PLC components and program file elements
      4. Wiring
        1. Power
        2. Input/output (I/O)
        3. PLC network operations 
        4. Identification of devices on a PLC network
      5. Ladder logic
        1. Use
        2. Importance of comments
      6. PLC modes
        1. Types
        2. Mode changes
      7. Transferring programs between PC and PLC
        1. Serial
        2. USB
        3. Ethernet connection
      8. Installing and configuring a PLC and its components
    2. PLC ladder logic programs
      1. PC software, PLC program, and reviewing files
      2. Developing PLC programs 
        1. Internal and external contacts (XIC, XIO, OTE)
        2. Timers
        3. Counters
        4. Non-retentive output coils
        5. Internal coils
        6. Subroutines
        7. Conditional commands
        8. Math commands
      3. PLC I/O diagram interpretation
      4. I/O device identification by memory address
      5. Function of analog I/O card
      6. Address scheme of a PLC
      7. G Interpreting control/sequence PLC programs
        1. Electric motors
        2. Fluid power systems
      8. Operating PLC programs
    3. Basic Human Machine Interface (HMI)
      1. Connecting and transferring HMI programs using a PC
      2. Configuring an HMI to a PLC 
        1. Via network
        2. Via direct connection
      3. Viewing data from HMI panel
      4. HMI screen navigation
        1. Touchscreen
        2. Function keys
      5. Using HMI to interpret system operation 
    4. Troubleshooting a PLC system
      1. PLC component failures
      2. Program version control
      3. Common troubleshooting methodologies 
      4. Using HMI to troubleshoot a PLC-controlled machine
      5. Troubleshooting an HMI on a PLC-controlled machine
      6. Tuning the performance of PLC-controlled machine
        1. Mechanical adjustments
        2. Electrical adjustments
        3. Software adjustments
      7. Optimizing systems


    Effective Term:
    Fall 2022
  
  • AIT 215 - Process Control Systems

    4 Credits, 6 Contact Hours
    3 lecture periods 3 lab periods

    Introductory course in Process Control Systems design, operation, and tuning of Proportional, Integral, Derivative (PID) controllers for regulating flow, temperature, pressure, and level of industrial process variables. Includes manual control, feedback control, automated controls, analysis process setup, operate, and troubleshooting processes of control systems. Also includes typical Pipe and Instrument Diagram (P&IDs) symbols and tags along with the development of a basic P&ID drawing.

    Prerequisite(s): AIT 125  
    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Interpret process control system documentation, including identifying components on a Piping and Instrumentation Diagram (P&ID), instrument tag, and instrument index. 
    2. Complete setup of analog sensors and signal conditioning equipment. 
    3. Adjust analog sensors and signal conditioning equipment. 
    4. Test analog sensors and signal conditioning equipment. 
    5. Complete setup of pneumatic proportional valves and I/P transmitters. 
    6. Adjust pneumatic proportional valves and I/P transmitters. 
    7. Test pneumatic proportional valves and I/P transmitters. 
    8. Build a process signal loop system.

    Outline:
    1. Interpreting process control system documentation
      1. Components identification 
        1. Instrumentation of Symbols and Identification (ISA)
        2. Components on a P&ID diagram
        3. Components on an instrument tag and instrument index
      2. Operation of a process control system given a P&ID diagram
      3. Components on a P&ID diagram identification given their instrument tags
      4. Instrument data interpretation given an instrument list
    2. II. Analog sensors and signal conditioning equipment
      1. Preparation and testing analog sensors
      2. Preparation and testing signal conditioning equipment
      3. Operation of current-output and voltage-output signal sensors
      4. Operation of signal conditions for analog sensors
      5. Operation of various transmitter types
      6. Analog sensors 
        1. Types
        2. Specifications
        3. Selection
      7. Units of measurement variables
        1. Raw data units
        2. Raw data conversions
      8. Commissioning
        1. Connecting sensors
        2. Testing sensors
        3. Calibrating
        4. Span
        5. Zero-point adjustments
      9. Failure types
    3. Pneumatic proportional valves and I/P transmitters
      1. Current-output and voltage-output of signal final control elements
      2. I/P converters operation
      3. Pneumatic proportional valves (2-way and 3-way)
        1. Identification of pneumatic proportional valves
        2. Operation of pneumatic proportional valves
        3. Testing of of pneumatic proportional valves
      4. Commissioning
        1. Connecting
        2. Testing
        3. Calibrating
        4. Span
        5. Zero-point adjustments
    4. Building a basic process signal loop system 
      1. Multiple Loop and Single loop process control
      2. System component selection
      3. Creation of a P&ID 
      4. Commissioning 
        1. Connecting
        2. Setup
        3. Tuning
        4. Operation
    5. Proportional, Integral, Derivative (PID) variables for a process control application
      1. Theory
      2. Application
      3. Adjustment/tuning on a controller


    Effective Term:
    Fall 2022
  
  • AIT 225 - Industrial Motors and Motor Controls

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    An introductory course in DC, single-phase AC, and 3-phase AC electric motors and motor control circuits. Includes motor control circuit components, motor control circuit applications, sequence circuits, and timer circuits. 

    Prerequisite(s): AIT 125  
    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage



    Course Learning Outcomes
    1. Install DC, single-phase AC, and 3-phase AC electric motors. 
    2. Test DC, single-phase AC, and 3-phase AC electric motors. 
    3. Interpret electric motor control component symbols and motor control circuit diagrams/schematics.  
    4. Describe motor control circuit components, such as contactors, manual starters, control relays, auxiliary contacts and overloads.
    5. Install motor control circuit components, such as contactors, manual starters, control relays, auxiliary contacts and overloads.
    6. Troubleshoot electrical motor control circuit faults. 

     


    Outline:
    I.Install, operate and test DC, single phase AC , and 3-phase AC electric motors.

       A. Installing DC and AC electric motors to a manual switch (given a power schematic)

       B. Operation of a DC and AC electric motors

       C. Operation of DC motor configurations (e.g. compound, series, shunt)

       D. DC and AC motor specifications interpretations

       E. DC and AC motor nameplate interpretation

       F. Multimeter and mega-ohmmeter (megger) to test a DC and AC motor

       G. Operation of a DC motor speed controller (its function/purpose)

       H. Function of a motor brake 

       I.  Operation and function of a bearing grounding ring

       J. How to select an AC motor overload

      K. Descriptions and calculations of synchronous motor speed, types of motor torque, horsepower, kilowatts, apparent power, true power, motor slip, motor efficiency and operational cost analysis

      L. Power factors and power factor corrections

    II. Interpret electric motor control component symbols and motor control circuit 

     schematic diagrams.

       A. Interpret ladder and wiring diagrams

       B. Types of basic electrical relay components and electric motors

       C. Schematic and wiring diagrams including, labels, electrical symbols and connections

    III. Describe the operation of and install motor control circuit components, such as contactors, manual starters, control relays, auxiliary contacts, and overloads

    1. Explain what an electric motor control circuit is and how it functions.
    2. Install and operate the following circuits
      1. Manual motor starters
      2. Basic machine control 
      3. Magnetic motor control
      4. Reversing motor 
      5. Sequence
      6. Timers

    IV. Troubleshooting 

    1. Electrical motor relay control circuit fault
    2. Basic electrical relay components and electric motors
    3. Basic electrical components in an electrical relay control circuit using in-circuit tests
    4. Multimeter to take electrical circuit readings during in-circuit testing
    5. Systematic methodology for electrical relay control circuits with AC and DC motors with various symptoms


     


    Effective Term:
    Full Academic Year 2019/20

  
  • AIT 235 - Electronics Assembly & Fabrication II

    3 Credits, 4 Contact Hours
    2 lecture periods 2 lab periods

    Continuation of AIT 135 . Fundamental principles of creating electronic prototypes, wire and cable termination, electronics safety, and wiring harness assembly. Includes fabrication of electronics enclosures, electrical control systems, and electronic control systems. Also includes checking torque applied to fasteners used in electrical and electronic systems.

    Prerequisite(s): AIT 135  
    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage



    Course Learning Outcomes
    1.         Demonstrate safe electronic/electrical work procedures.

    2.         Differentiate between various prototyping methods and their appropriate application.

    3.         Demonstrate effective wire/cable termination and wiring harness assembly.

    4.         Apply appropriate electronics enclosure fabrication procedures.

    5.         Fabricate electrical/electronic control systems that meet applicable standards.

    6.         Test fastener torque using various tools.


    Outline:
    1. Electronics, Electrical and Fabrication Safety Review
      1. Lockout/Tagout, Personal Protective Equipment
      2. Associated hazards for electrical/electronic work
        1. Electric shock/burns
        2. Striking by moving/flying objects
        3. Lifting
        4. Chemical/hazardous materials/MSDS
        5. Fire
      3. Grounding, insulated tools, ground fault circuit interruption protection
      4. Emergency response and first aid
    2. Prototyping
      1. Perfboard and solder
      2. Generic printed circuit board
      3. “Dead Bug”
      4. Custom printed circuit board
      5. Wire wrap
    3. Wire Termination and Wiring Harnesses
      1. Terminal and plug types
      2. Installing terminals and plugs
      3. Assembly
      4. Testing
      5. Troubleshooting and repair
    4. Enclosure Fabrication
      1. Design
      2. Measurement and layout tools
      3. Fabrication techniques
      4. Layout
      5. Projects
    5. Electrical and Electronic Control System Fabrication
      1. Component layout
      2. Raceway/wire routing
      3. Mounting internal and front panel components
      4. Wiring connection and termination
      5. Testing and troubleshooting
    6. Torque
      1. Principles of fasteners and effects of torque on threaded fasteners
      2. Torque theory
      3. Mechanical torque devices
      4. Electronic torque devices

     


    Effective Term:
    Full Academic Year 2019/20

  
  • AIT 250 - Automated Industrial Technology Capstone

    3 Credits, 5 Contact Hours
    2 lecture periods 3 lab periods

    An examination of the integration of mechanical, hydraulic, pneumatic, electrical, piping, electronic control, and process control systems. Experience in designing, building, maintaining, troubleshooting, and repairing such integrated systems will be gained.

    Prerequisite(s): AIT 225  or concurrent enrollment.
    Button linking to AZ Transfer course equivalency guide  



    Course Learning Outcomes
    1.         Demonstrate safe working procedures when working with integrated systems.

    2.         Program a stepper motor.

    3.         Adjust various pneumatic and electric actuators.

    4.         Create designs that integrate mechanical, hydraulic and/or pneumatic, piping, electronic control, and process control systems.

    5.         Determine the problem(s) to be resolved by a project; and analyze and correct design flaw(s).


    Performance Objectives:
    1.         Operate various types of single and multiple automated manufacturing stations.

    2.         Connect automated manufacturing stations to function in unison.

    3.         Effectively create all necessary documentation for a project.

    4.         Fabricate, test, and evaluate prototypes of designs.


    Outline:
    1. Safety (review)
      1. Lockout/Tagout
      2. Hydraulic, pneumatic, electrical, electronic, and mechanical system hazards
      3. Housekeeping considerations
    2. Automation Operations
      1. Introduction to mechatronics
      2. Control system principles
      3. Machine operation
    3. Component Adjustment
      1. Manual station operation
      2. Pneumatic/electric pick and place actuators
      3. Sensors
    4. Pick and Place Feeding Station
      1. Station operation
      2. Station component adjustment
      3. Module sequencing
      4. Station sequencing
    5. Gauging
      1. Station operation
      2. Station component adjustment
      3. Module sequencing
      4. Station sequencing
    6. Indexing
      1. Station operation
      2. Station component adjustment
      3. Module sequencing
      4. Station sequencing
      5. Stepper motor programming
    7. Sorting and Queuing
      1. Station operation
      2. Station component adjustment
      3. Module sequencing
      4. Station sequencing
    8. Servo Robotic Assembly
      1. Station operation
      2. Station component adjustment
      3. Module sequencing
      4. Station sequencing
    9. Torquing
      1. Station operation
      2. Station component adjustment
      3. Torque adjustment           
      4. Module sequencing
      5. Station sequencing
    10. Parts Storage
      1. Station operation
      2. Station component adjustment
      3. Module sequencing
      4. Station sequencing
    11. Multiple Station Control
      1. Discrete I/O handshaking
      2. System startup/halt
      3. System stop/reset
      4. FMS programming
    12. Capstone Project
      1. Problem identification
      2. Researching and documenting information
    13. Methods of Recording
    14. Protecting Information From Loss and Tampering
      1. Design process
        1. Idea generation (i.e. brainstorming and researching ways similar problems have been solved)
        2. Idea screening methods
        3. Testing ideas against customer requirements
      2. Common pitfalls in the design process
      3. Determining specifications
      4. Prototypes and their creation
      5. Iterative testing and redesign to improve a design
      6. Continuous improvement


    Effective Term:
    Full Academic Year 2019/20

  
  • AIT 270 - Robotics I

    3 Credits, 4 Contact Hours
    2 lecture periods 2 lab periods

    Fundamental principles of working safely with robots, and applications of and trends in industrial robotics. Includes types of robots, axes and coordinate systems, programming and operating robots. Also includes end effectors, and collaborative robots.

    Prerequisite(s): AIT 100  and AIT 105  
    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage



    Course Learning Outcomes
    1.         Recommend safe work procedures when working with robots.

    2.         Analyze applications and trends in industrial robotics.

    3.         Compare various robot, axes and coordinate types and systems.

    4.         Develop an industrial robot program to perform a specified task.

    5.         Identify various end effectors.


    Outline:
    1. Definition of a Robot
    2. Robotics Safety
      1. Work spaces
      2. Physical barriers and interlocks
      3. Avoiding collision paths
      4. Lock Out/Tag Out
    3. Applications of Industrial Robots
      1. Material handling
      2. Loading and unloading machines
      3. Painting
      4. Welding, soldering, and adhesive application
      5. Assembly
      6. Picking (Warehousing)
    4. Trends in Robots
      1. Traditional robots
      2. Collaborative robots
      3. Use of vision systems
      4. Machine learning and Artificial Intelligence (AI)
      5. Industry 4.0, IoT, Smart Factories
    5. Types of Robots and Axes
      1. Definition of an axis
      2. Articulated (Arm)
      3. Cartesian (Gantry)
      4. Polar
      5. Cylindrical
      6. SCARA
      7. Delta


    Effective Term:
    Full Academic Year 2019/20

  
  • AIT 275 - Robotics II

    3 Credits, 4 Contact Hours
    2 lecture periods 2 lab periods

    Continuation of AIT 275. Fundamental principles of working safely with robots; robot auxiliary, subsystems, and components. Also includes robot maintenance, troubleshooting, repair, and a basic robot design project.

    Prerequisite(s): AIT 270  
    Button linking to AZ Transfer course equivalency guide  



    Course Learning Outcomes
    1.         Implement various robot vision systems.

    2.         Analyze various robotic subsystems and components.

    3.         Troubleshoot maintenance and repair issues on a robot.

    4.         Design a rudimentary, functional robot.


    Outline:
    1. Robotics Safety Review
    2. Robot Vision
      1. 1, 2, and 3 Dimensions
      2. Line scan
      3. Area scan
    3. Robot Subsystems and Components
      1. Structure
      2. Joints/Articulation
      3. Mechanical drive systems
      4. Servo and stepper motors
      5. Controllers
      6. Teach pendants
      7. Enclosures
      8. End effectors
    4. Maintenance
      1. Preventative
        1. Cleaning
        2. Lubrication
      2. Predictive
      3. Controller
      4. Electrical
      5. Structural
      6. Mechanical
      7. Safety
    5. Robot Troubleshooting
      1. Principles and methods
      2. Common problems
    6. Repair
      1. Disassembly
      2. Component repair
      3. Component replacement
      4. Reassembly   
    7. Design and Build        
    8. Machine Learning


    Effective Term:
    Full Academic Year 2019/20

  
  • AIT 280 - Industry 4.0 and Industrial Control Systems

    3 Credits, 4 Contact Hours
    2 lecture periods 2 lab periods

    Introductory course in Industry 4.0, including physical processes within factories and virtualization techniques and intelligent decision-making capabilities. Includes Cyber-Physical Systems (CPS), Supervisory Control and Data Acquisition (SCADA), Distributed Control Systems (DCS), Smart Factories, lean manufacturing, and the Internet of Things (IOT). Also includes an introduction to the set-up of SCADA software.

    Prerequisite(s): AIT 215  or concurrent enrollment.
    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Identify industry 4.0 system components and their functions.
    2. Describe the major elements of SCADA, CPS, DCS, and IOT.
    3. Describe the media, technology, and configuration of industrial networks.
    4. Configure a cloud-based maintenance notification system.
    5. Configure SCADA based system.
    6. Integrate Industry 4.0 data acquisition capabilities to an existing industrial system.
    7. Implement system improvement based upon Industry 4.0 information.

    Outline:
    1. Industry 4.0 components and their functions
      1. Advanced manufacturing
      2. Emerging technologies
        1. Additive
        2. NANO
        3. Lightweight
        4. Other
      3. Related Principles
        1. Internet of Things (IOT)
        2. Industry 4.0
        3. Smart Factories
        4. Digital Twin
        5. Digital Shadow
        6. Smart Maintenance 
      4. 5 Layer Automation Pyramid
        1. Layer 1-Sensors, actuators, and hardware
          1. Types
          2. Hardware and fastening aspects
          3. Applications
        2. Layer 2-Local control devices and data collection devices
          1. Programmable Logic Controllers (PLC)        
          2. Remote terminal units (RTU)
          3. Human Machine Interface (HMI)
          4. Proportional Integral Derivative controllers (PID)
        3. Layer 3-Distributed Control Systems (DCS) and Supervisory Control and Data Acquisition (SCADA)
          1. Definition
          2. Common components and structures
          3. Software
            1. Types
            2. Programming   
        4. Layer 4-Manufacturing Execution Systems (MES)
        5. Layer 5-Enterprise Resource Planning (ERP)  
    2. Types of automation
      1. Automation and software used in Industry 4.0
      2. Basic function and application of PLC, Robots, Computer Numerical Control (CNC)
      3. Robot types and their applications
    3. Industrial networks
      1. Open Systems Interconnection (OSI) seven layer model
      2. Cabling and other media
      3. Topologies
      4. Speed 
      5. Reliability
      6. Security
    4. Configuring a cloud-based maintenance notification system
      1. Maintenance notification using a mobile device
      2. View production data
    5. Configuring SCADA based system
    6. System improvement based upon Industry 4.0 information
      1. Types of manufacturing waste in an advanced manufacturing plant
      2. 5S process
      3. Lean Manufacturing
      4. Process improvement project


    Effective Term:
    Fall 2022
  
  • AIT 291 - Automated Industrial Technology Internship

    3 Credits, 6 Contact Hours
    0 lecture periods 6 lab periods

    Supervised work experience in production environments. Includes experiences in maintenance, troubleshooting, repair of production environment and specific manufacturing processes. Also includes experiences in problem solving; working as a team; soft skills; time and resource management; and exposure to specific manufacturing processes.

    Prerequisite(s): AIT 225  or concurrent enrollment.
    Button linking to AZ Transfer course equivalency guide  



    Course Learning Outcomes
    1.           Demonstrate professional workplace behavior.

    2.           Assess and report own professional growth over the course of the class.

    3.           Identify opportunities for continuing growth.

    4.           Allocate time, material, and other resources effectively.

    5.           Explain and evaluate manufacturing processes used at a manufacturing facility; and create solutions to identified problems


    Outline:
    I.            Professional Workplace Behavior/Employabilty Skills

    A.        Attitude

    B.        Appearance

    1.     Hygiene

    2.     Proper attire

    C.        Commitment to continuing learning

    D.        Punctuality/Dependability

    E.        Working safely

    F.        Communication

    G.        Working in a team

    II.           Professional Growth

    A.        Self pre-assessment  

    1.     Identifying strengths & opportunities for growth

    2.     Setting goals and creating plans to reach achieve those goals

    B.        Self post-assessment

    1.     Identifying successes and opportunities for further growth

    2.     Resources to help achieve that growth

    III.         Time and Resource Management

    A.        Identifying and prioritizing tasks and responsibilities

    B.        Evaluating time and other resources available

    C.        Analyzing wastes of time and resource

    D.        Creation and execution of plans to reduce those wastes

    E.        Measuring success of those plans

    IV.         Manufacturing Processes

    A.        Identification and evaluation of manufacturing processes in use

    B.        Analyzing effectiveness existing processes

    C.        Determining suitability of alternative processes

    D.        Apply quality control concepts and formulate potential improvements

    E.        Examine continuous improvement opportunities

    V.          Diagnosing Problems and Determining Solutions

    A.        Systems thinking

    B.        Troubleshooting methodologies

    C.        Determining solutions


    Effective Term:
    Full Academic Year 2019/20


Automotive Technology

  
  • AUT 100 - Small Engine Troublesht&Repair

    3 Credits, 7 Contact Hours
    1 lecture period 6 lab periods

    Small Engine Troubleshoot and Repair. Principles and procedures for overhauling, troubleshooting and repairing small engines. Includes safety and hazardous materials handling, engine types and identification, engine operation and maintenance, disassembly and inspection, engine reconditioning and assembly, fuel and ignition system assembly, mechanical operation and testing, multicylinder engines, and overhead valve (OHV) engines.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Perform engine identification, Measuring, and Failure Analysis.
    2. Demonstrate assembly of the fuel system components.
    3. Demonstrate assembly of the ignition system components.
    4. Student will be able to assemble, diagnose, and operate a small engine.

    Outline:
    1. Safety and Hazardous Materials Handling
      1. Work habits
      2. Material Safety Data Sheets (MSDS)
      3. Environmental Protection Agency (EPA)
      4. Regulations
      5. Occupational Safety Health Administration (OSHA) regulations
      6. Fire extinguishers and exits
    2. Engine Types and Identification
      1. Vertical and horizontal crankshafts
      2. Overhead and non-overhead valves
      3. Single and multicylinder
      4. Parts system and forms
    3. Engine Operation and Maintenance
      1. Four stroke theory and applications
      2. Two stroke theory and applications
    4. Disassembly and Inspection
      1. Failure analysis and inspection report
      2. Engine measurement and report form
      3. Parts ordering and obtainment
    5. Engine Reconditioning
      1. Cylinder and pistons and connecting rod assemblies
      2. Crankshaft and camshaft assemblies
      3. Valve and valve seat reconditioning
      4. Main bearings and bushings
    6. Engine Assembly
      1. Crankcase, lubrication, and governor assembly
      2. Cylinders and connecting rods, and piston assembly
      3. Valves and cylinder head assembly
      4. Re-coil starting system assembly
      5. Cooling system assembly
    7. Fuel System Assembly
      1. Pulse-a-jet type
      2. Flo-jet type
      3. Vacu-jet type
    8. Ignition System Assembly
      1. Magneto and point type - theory and operation
      2. Magnetron and electronic type - theory and operation
    9. Mechanical Operation and Testing
      1. Adding oil
      2. Priming carburetor
      3. Troubleshooting procedures
      4. Tuning and adjustments
      5. Maintenance procedures
    10. Multicylinder Engines
      1. Mechanical Aspects
      2. Ignition Aspects
      3. Fuel and air Aspects
    11. Overhead Valve (OHV) Engines
      1. Valve train designs
      2. Valve adjustments
      3. Camshaft configurations


    Effective Term:
    Full Academic Year 2018/19
  
  • AUT 101 - Automotive Maintenance

    3 Credits, 7 Contact Hours
    1 lecture period 6 lab periods

    Automotive Maintenance. Techniques of routine vehicle maintenance. Includes customer vehicle identification and handling, new vehicle pre-delivery inspection and preparation, safety inspection, lubrication tasks, light line tasks, and fluid flushing.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Perform an engine oil and filter change on a typical vehicle
    2. Perform an automatic transmission/transaxle fluid change on a typical vehicle
    3. Perform a fluid change on a manual transmission, differential, and/or transfer case
    4. Perform a coolant drain and fill, R&R wipers, hoses, and belts
    5. Perform a tire inspection and rotation
    6. Perform a comprehensive vehicle inspection

    Outline:
    1. Safety
      1. Work habits
      2. Occupational Safety Health Administration (OSHA) regulations
    2. Customer Vehicle Identification and Handling
      1. Work orders
      2. Key storage and vehicle identification
      3. Protective covers and cleanliness
      4. New Vehicle Pre-Delivery Inspection (PDI) and Preparation
    3. Preparation and inspection forms
      1. Underhood inspection
      2. Under vehicle inspection
      3. Body-exterior inspection
      4. Body-interior inspection
      5. Pre-road test
      6. Items normally tested by road test
    4. Safety Inspection
      1. Brake system inspection
      2. Tire condition and pressure
      3. Lights, horn and wiper operation
      4. Steering and suspension inspection
      5. Exhaust inspection
      6. Fuel system inspection
      7. Seat belt operation
      8. Glass and mirror inspection
      9. Body and structure inspection
      10. Battery and battery cables testing and inspection
      11. U-joint and CV joint inspection
    5. Lubrication Technician Tasks
      1. Request/work orders and customer history
      2. Chassis lubrication
      3. Engine oil and filter changes
      4. Automatic transmission fluid and filter changes
      5. Standard transmission, differential and transfer case oil changes
      6. Filter changes
        1. Fuel
        2. Air
        3. Charcoal canister
        4. Positive crankcase ventilation (PCV)
      7. Twenty seven point inspection of leaks and hazards
    6. Light Line Technician Tasks
      1. Inspect, replace, and adjust fan belts
      2. Inspect, replace radiator, and heater hoses
      3. Inspect and replace wiper blades
      4. Inspect and replace head and tail lamps
      5. Clean, inspect, and test batteries
      6. Turn and hazard warning circuit testing and replacement
      7. Water pump and fan clutch inspection
      8. Shock absorber inspection/testing
      9. Tire rotation and inspection
      10. Brake systems inspection/testing
      11. Hoist operation and vehicle lifting points


    Effective Term:
    Full Academic Year 2020/21
  
  • AUT 105 - Light Line Maintenance

    3 Credits, 7 Contact Hours
    1 lecture period 6 lab periods

    Principles and procedures for light line service. Includes safety, transmission and driveline systems, air conditioning/heating systems, electrical systems, suspension/steering systems, engine performance, and tools and equipment.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Perform a cooling system flush
    2. Perform an automatic transmission fluid flush
    3. Perform a full brake job
    4. Perform a rear axle R&R
    5. Perform a CV axle R&R
    6. Demonstrate knowledge of Tire Pressure Monitoring Systems (TPMS) and perform basic diagnosis on them
    7. Demonstrate tire wear diagnosis, and perform a tire dismount, repair, remount, and balance
    8. R&R a water pump and perform a coolant pressure test

    Outline:
    1. Safety
      1. Work habits
      2. Material Safety Data Sheets (MSDS)
      3. Environmental Protection Agency (EPA)
      4. Regulations
      5. Occupational Safety Health Administration (OSHA) regulations
      6. Fire extinguishers and exits
    2. Engine Mechanical Systems
      1. Engine mechanical theory
      2. Cooling system
        1. Theory and operation
        2. Water pump and thermostat, Remove and Replace (R & R)
        3. Pressure test and operational checks
      3. Exhaust system inspection
      4. Timing belt and chain inspection
    3. Transmission and Driveline Systems
      1. Automatic transmission and transaxle
        1. Seal and gasket leaks, inspection and replacement
        2. Linkage adjustment and repair
      2. Manual transmission and transaxle
        1. Seal and gasket leaks, inspection and replacement
        2. Linkage adjustment and repair
        3. Clutch adjustment and repair
      3. Final Drive
        1. U-joints inspection and replacement
        2. CV-joint inspection
      4. Axle shafts
        1. Seals, inspection and replacement
        2. Wheel studs, replacement
    4. Air Conditioning and Heating Systems
      1. Air conditioning
        1. Theory and operation
        2. Component inspection and adjustment
      2. Heating
        1. Theory and operation
        2. Component inspection and adjustment
    5. Electrical Systems
      1. Multimeter use
      2. Lights, wiring, and circuit diagnosis and repair
      3. Battery testing, diagnosis, and replacement
      4. Alternator testing, diagnosis, and replacement
      5. Starter testing, diagnosis, and replacement
      6. Vehicle starting with jumper cables
    6. Suspension and Steering Systems
      1. Shock absorbers inspection and replacement
      2. Wheel bearing, inspection, service and replacement
      3. Steering and alignment inspection and diagnosis
      4. Tires - inspection and diagnosis of wear patterns
      5. Tires - change, repair, and balance
    7. Engine Performance
      1. Ignition system, inspection and diagnosis
      2. Fuel system, inspection and diagnosis
    8. Automotive Hand Tools and Equipment
      1. Proper use and storage of automotive hand tools
      2. Hoist operation and safety
      3. Use of drills, taps, and dies


    Effective Term:
    Full Academic Year 2020/21
  
  • AUT 120 - Engine Diagnosis and Repair

    3 Credits, 7 Contact Hours
    1 lecture period 6 lab periods

    Techniques for light line engine service. Includes personal and environmental safety, general engine diagnosis, lubrication system diagnosis and repair, cooling system diagnosis and repair, cylinder head diagnosis and repair, and engine block diagnosis and repair.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage



    Course Learning Outcomes
    1. Properly identify engine design and components
    2. Perform crankshaft removal, inspection, and reinstall
    3. Remove and replace engine timing chain
    4. Perform Engine Measurements and determine needed repairs.
    5. Perform full engine teardown and reassembly
    6. Perform teardown, measurement, and reinstall of the engine valve train
    7. Perform general engine diagnostics tests and determine necessary action.

    Outline:
    I. Engine Theory


    A. Four-Stroke Cycle
    B. Cylinder Arrangement
    C. Engine Components
    D. Lubrication and Cooling System

    II. Engine Bottom End Service


    A. Boxer Engine Designs
    B. Rod Designs
    C. Crankshaft R&R

    III.Timing Chains


    A. Engine Timing
    B. Timing Chain Components  
    C. Harmonic Dampers
    D. Timing Chain R&R

    IV. Engine Measurements


    A. Piston Inspection and Measurements
    B. Crankshaft Inspection and Measurements
    C. Cylinder Inspection and Measurements
    D. Cam and Crankshaft Endplay measurements
    E. Oil Clearances

    V. Engine Teardown

    A. Timing Belt Operation
    B. Engine Fasteners
    C. Cylinder Head Gaskets

    VI. Engine Top End Service


    A. Valve Operation
    B. Servicing Valve Seats
    C. Overhaul of Valve Train

    VII. Engine Mechanical Diagnostics

    A. Overview of Engine Drivability 
    B. Cylinder Balance Test
    C. Cylinder Wet and Dry Compression Test
    D. Cylinder Leak Down Test

    VIII. Safety and Hazardous Materials Handling 

    A. Safe work habits and proper lifting/carrying of materials
    B.Proper clothing and protective equipment  
    C.Material Safety Data Sheets (MSDS)
    D.Occupational Safety Health Administration (OSHA) regulations  
    E. Fire extinguishers, exits and evacuation procedures


    Effective Term:
    Fall 2022

  
  • AUT 122 - Engine Remove and Install

    3 Credits, 7 Contact Hours
    1 lecture period 6 lab periods

    Techniques for heavy-line engine exchange. Includes personal and environmental safety, front wheel drive engine removal and installation, and rear wheel drive engine removal and installation.

    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Demonstrate ability to locate service information for front wheel drive vehicle.
    2. Remove a front wheel drive engine.
    3. Install a front wheel drive engine.
    4. Demonstrate ability to locate service information for rear wheel drive vehicle.
    5. Remove a rear wheel drive engine.
    6. Install a rear wheel drive engine.

    Outline:
    1. Personal and Environmental Safety
      1. Clothing and personal protection devices
      2. Fire extinguishers: location and use
      3. Material Safety Data Sheets (MSDS) location and application
    2. Engine Removal-Front Wheel Drive
      1. Drain and recycle engine fluids
      2. Disconnect fuel and electrical
      3. Disconnect cooling and exhaust
      4. Remove engine
      5. Prepare engine for disassembly
    3. Engine Installation-Front Wheel Drive
      1. Prepare chassis for engine
      2. Install engine
      3. Connect cooling and exhaust
      4. Operate engine: inspect for leaks
    4. Engine Removal-Rear Wheel Drive
      1. Drain and recycle engine fluids
      2. Disconnect fuel and electrical
      3. Disconnect cooling and exhaust
      4. Remove engine
      5. Prepare engine for disassembly
    5. Engine Installation-Rear Wheel Drive
      1. Prepare chassis for engine
      2. Install engine
      3. Connect cooling and exhaust
      4. Operate engine: inspect for leaks


    Effective Term:
    Fall 2015
  
  • AUT 124 - Diesel, Hybrid, and Electric Vehicles

    3 Credits, 7 Contact Hours
    1 lecture period 6 lab periods

    The theory, operation, and diagnosis of diesel, hybrid-electric, and fully electric vehicles. Includes diesel engine design, fueling systems, and emissions. Also includes hybrid-electric and fully electric vehicle design, battery design, and high-voltage safety measures.

    Prerequisite(s): AUT 126  and AUT 129  
    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Identify common diesel fuel and emission systems
    2. Diagnose and repair diesel emission systems
    3. Diagnose and repair diesel fuel systems
    4. Repair diesel mechanical systems
    5. Identify common hybrid and fully electric vehicle components and systems
    6. Perform basic repair service on a fully electric vehicle
    7. Perform basic diagnostics on a hybrid-electric vehicle
    8. Perform basic diagnostics and repair on hybrid battery packs

    Outline:
    1. Diesel System Theory
      1. Diesel Fuel Systems
      2. Common Rail Vs. Injection Pumps
      3. Piezoelectric Injectors
      4. Diesel Fuel Composition
      5. Diesel Grades
      6. Cetane Vs. Octane
      7. Diesel Emission Control Systems
      8. Controlling NOx, Soot, and Particulates
      9. Diesel Mechanical Systems
    2. Duramax 2.8 Emissions Systems
      1. EGR System Design
      2. DPF, DEF, and SCR Operation
      3. Regeneration Cycles
      4. Diagnosing Exhaust System Sensors
    3. Stellantis EcoDiesel Fuel System
      1. Low Pressure System
      2. High Pressure System
      3. Injectors
      4. Fuel Trim
      5. Exhaust Treatment
    4. Diesel Mechanical Systems
      1. Engine Build and Design
      2. Timing Gear Sets
      3. Engine Top-End Design
      4. Engine Bottom-End Design
    5. Hybrid and Electric Vehicle Fundamentals
      1. Hybrid Internal Combustion Engines (ICE)
      2. Motor Generators (MG’s)
      3. Battery Packs
      4. Inverters and Converters
      5. Onboard Charging Module
      6. DC Fast Charging
      7. Parallel, Series, and Series-Parallel Hybrids
      8. High-Voltage Safety Precautions
      9. Insulated Glove Inspections
    6. Chevrolet Bolt EV Design and Operation
      1. Battery Pack
      2. Motor Generator
      3. Modules        
      4. Cooling Systems
      5. Safety Glove Inspection
      6. Battery Disconnects
      7. High-voltage safety inspections            
    7. Toyota Camry Hybrid Design and Operation
      1. Internal Combustion Engine Design
      2. Battery Pack
      3. Motor Generators 1 and 2
      4. Inverter Module      
      5. Cooling Systems
      6. Safety Glove Inspection
      7. Battery Disconnects
      8. Battery Pack Diagnosis and Service
         
    8. Bolt EV Battery Pack Service
      1. Safety and Precautions
      2. Pack Removal
      3. Pack Diagnosis and Service
      4. Pack Install   
      5. HV System Reinitialization
         
    9. Safety and Hazardous Materials Handling
      1. Safe work habits and proper lifting/carrying of materials
      2. Proper clothing and protective equipment       
      3. Material Safety Data Sheets (MSDS)
      4. Occupational Safety Health Administration (OSHA) regulations        
      5. Fire extinguishers, exits and evacuation procedures


    Effective Term:
    Fall 2015
  
  • AUT 126 - Engine Performance and Driveability Troubleshooting

    3 Credits, 7 Contact Hours
    1 lecture period 6 lab periods

    Diagnosis and repair of On-board Diagnostics Generation One (OBDI) and Two (OBDII) systems. Includes personal and environmental safety, general engine, computerized engine controls, ignition system, fuel, air induction, and exhaust systems, emissions control systems, and engine related service.

    Prerequisite(s): AUT 128  
    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate knowledge of the 3 major systems of engine drivability.
    2. Demonstrate knowledge of engine mechanical systems and perform diagnosis on them.
    3. Demonstrate knowledge of fuel injection systems and perform diagnosis on them.
    4. Demonstrate knowledge of ignition systems and perform diagnosis on them.
    5. Demonstrate knowledge and proficiency with the Snap-On Verus Pro Scanner and service and obtain an NC3 certification. 
    6. Demonstrate knowledge of engine emission systems and perform diagnosis on them.
    7. Demonstrate knowledge on forced induction systems and perform diagnosis on them.

    Outline:
    1. Personal and Environmental Safety
      1. Clothing and personal protection devices
      2. Fire extinguisher and alarm location and use
      3. Material Safety Data Sheets location and application
      4. Supplemental restraints de-activation during repairs
    2. General Engine Diagnosis and Repair
      1. Work order completion
      2. Identify and interpret engine performance concern
      3. Research and obtain vehicle and service information
      4. Locate and interpret vehicle and component identification numbers
      5. Inspect engine assemble for fuel, oil, coolant and other fluid leaks
      6. Diagnose abnormal engine noise or vibrations
      7. Diagnose abnormal exhaust color, odor and sound
      8. Perform engine vacuum and boost pressure tests
      9. Perform engine power balance test
      10. Perform cylinder cranking compression tests
      11. Perform engine running compression test
      12. Perform cylinder leakage test
      13. Diagnose engine mechanical, electrical and fuel concerns with diagnostic equipment
      14. Utilize 4 or 5 gas analyzer to obtain exhaust readings and interpret data
      15. Verify engine operating temperature
    3. Computerized Engine Controls Diagnosis and Repair
      1. Retrieve, record and clear stored OBD I diagnostic trouble codes
      2. Retrieve, record and clear stored OBD II diagnostic trouble codes
      3. Diagnose emissions or driveabilty concerns with trouble codes present
      4. Diagnose emissions or driveability concerns with no trouble codes present
      5. Check for module communication errors using a scanner
      6. Inspect and test sensors, actuators, controls modules and circuits with a graphing multimeter
      7. Obtain and interpret scan tool data
      8. Access and use service information to perform a step by step diagnosis
      9. Diagnose driveability and emissions problems due to accessory interactions
      10. Perform active tests of actuators using a scan tool
      11. CAN communication systems
      12. OBD II driveabilty, no start and hard start problems
      13. Variable intake and valve timing
    4. Ignition System Diagnosis and Repair
      1. Diagnose distributer less ignition related problems
      2. Diagnose distributer ignition related problems
      3. Inspect and test primary circuit wiring and solid state components
      4. Inspect and test distributor operation
      5. Inspect and test secondary circuit wiring and components
      6. Inspect and test ignition coils
      7. Check and adjust ignition timing
      8. Inspect and test pick-up sensors or triggering devices
    5. Fuel, Air Induction and Exhaust Systems Diagnosis and Repair
      1. Diagnose no start and hard start problems
      2. Diagnose idle, stalling and dieseling problems
      3. Diagnose flooding , hesitation, poor performance and surging problems
      4. Diagnose engine misfire, poor mileage, and emissions problems
      5. Check fuel for contaminants and quality
      6. Inspect and test fuel pump systems for pressure, regulation and volume
      7. Replace fuel filters
      8. Inspect and test cold enrichment systems and components
      9. Inspect air induction system for vacuum leaks (unmetered air)
      10. Inspect and test fuel injectors
      11. Inspect the integrity of the exhaust system and components
      12. Perform exhaust system backpressure check
      13. Test the operation of turbocharger or supercharger systems
    6. Emissions Control Systems Diagnosis and Repair
      1. Diagnose oil leaks, emissions and driveability problems due to Positive Crankcase Ventilation (PCV) system failures
      2. Inspect and test Positive Crankcase Ventilation (PCV) systems
      3. Diagnose emissions and driveability problems due to Exhaust Gas Recirculation (EGR) system Failures
      4. Inspect and test Exhaust Gas Recirculation (EGR) system mechanical controls
      5. Inspect and test EGR system electrical sensors, controls and wiring
      6. Diagnose problems in the secondary air injection and catalytic converter systems
      7. Diagnose malfunctions in the Evaporation Emissions (EVAP) systems
      8. Interpret EVAP Diagnostic Trouble Codes (DTC)
    7. Engine Related Service
      1. Adjust engine mechanical or hydraulic valves
      2. Remove and replace timing belt and verify camshaft timing
      3. Remove and replace thermostat and gasket
      4. Inspect and test engine mechanical and electrical fans systems
      5. Perform fastener thread repairs, including removing broken bolts and installing inserts
      6. Perform oil and filter change
      7. Identify hybrid engine service precautions
    8. Double Timing Chain
      1. Removal
      2. Replacement


    Effective Term:
    Full Academic Year 2021/22
  
  • AUT 128 - Automotive Electrical Fundamentals and Applications

    3 Credits, 7 Contact Hours
    1 lecture period 6 lab periods

    Principles and procedures of electrical diagnosis and repair. Includes electrical fundamentals and test test equipment, electrical system, battery, starting system, charging system, lightingsystems, instrumentation, integrated circuits, and computerized control systems.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Perform electrical measurements and create parallel, series, and series/parallel circuits.
    2. Test and measure battery performance and determine necessary repairs.
    3. Demonstrate understanding of Digital Multimeter Operation and utilize it to diagnose electrical malfunctions.
    4. Troubleshoot and repair electrical malfunctions within a typical starting system by using a step diagnostic method.
    5. Troubleshoot and repair electrical malfunctions within a typical charging system by using a step diagnostic method.
    6. Inspect, diagnose, and repair lighting system malfunctions using a step diagnostic method.
    7. Inspect, diagnose, and repair typical driver information, instrumentation cluster, and sensor malfunctions using a step method.
    8. Demonstrate understanding of the Snap-on Multimeter 525 Multimeter and obtain NC3 certification.

    Outline:
    1. Electrical Fundamentals and Test Equipment
      1. Definition and effects of electricity
      2. Measurement and types of electricity
        1. Voltage
        2. Amperage
        3. Resistance
      3. Actions of Electricity
        1. Heat generation
        2. Chemical reaction
        3. Magnetism and electromagnetism
      4. Circuit types and components of a circuit
        1. Parallel
        2. Series
        3. Combination
      5. Diagnostic testing, low and high resistance, and measurement
        1. Voltage drops
        2. Resistance checks
        3. Continuity checks
      6. Electrical circuit controls
        1. Resistors, fixed and variable type
        2. Switches
        3. Relays
    2. Battery Diagnosis and Service
      1. Charge test
      2. Capacity (load, high rate discharge) tests
      3. Slow/fast battery charge
      4. Battery cables, connectors, clamps and hold-downs
      5. Jumper pack use
    3. DVOM Operation and Electrical Circuit Diagnosis
      1. DVOM design and operation
      2. Electrical circuit design and operation
      3. Utilizing voltage drops to isolate failed circuits and components
      4. Properly documenting diagnostic procedures and findings
    4. Starting System Diagnosis and Repair
      1. Starter relays and solenoids
      2. Starter circuit voltage drop testing
      3. Starter: remove and replace
      4. Electrical and mechanical troubleshooting
      5. Properly documenting one’s diagnostic procedure and findings
    5. Charging System Diagnosis and Repair
      1. Problems that cause an undercharge, no charge, or overcharged condition
      2. Alternator drive belts
      3. Alternator: remove and replace
      4. Electrical diagnosis
      5. Properly documenting diagnostic procedure and findings
    6. Lighting Systems Diagnosis and Repair
      1. Bulb and headlight styles/designs
      2. LED construction and operation
      3. Inspecting bulbs
      4. Bulb and headlight circuit diagnoses
      5. Properly documenting diagnostic procedures and findings
    7. Instrumentation
      1. Gauges and gauge sending units operation
      2. Circuit design of common instrumentation systems
      3. Constant, intermittent, or no warning light and drive information system operation
      4. Intermittent, high, low, or no readings on electronic digital instrument clusters
      5. Diagnosing sensors, sending units, and instrument circuits using a step method
      6. Properly documenting diagnostic procedures and findings
    8. Snap-on 525 Multimeter Training
      1. Utilizing measurement scale
      2. Testing voltage, ohms, and amperage on live circuit
      3. Testing diodes
      4. Measuring alpha charge
    9. Safety and Hazardous Materials Handling
      1. Work habits
      2. Material Safety Data Sheets (MSDS)
      3. Environmental Protection Agency (EPA)
      4. Regulations
      5. Occupational Safety Health Administration (OSHA) regulations
      6. Fire extinguishers and exits
    10. Electrical Systems Diagnosis
      1. Wiring diagrams
      2. Electrical circuits
      3. Voltages and voltage drops in electrical/electrical circuits
      4. Current flow in electrical/electrical circuits
      5. Electrical circuit checking and repair
      6. Shorts, grounds, opens, and high resistance problems in electrical/electronic circuits
      7. Diagnosis of abnormal key-off battery drain
      8. Fusible links, circuit breakers and fuses
      9. Switches, connectors, and wires of electrical/electronic circuits


    Effective Term:
    Full Academic Year 2019/20
  
  • AUT 129 - Automotive Electrical Accessories

    3 Credits, 7 Contact Hours
    1 lecture period 6 lab periods

    Theory, operation, and diagnosis of accessory circuits on a modern vehicle. These include anti-theft, power windows/locks, sound and entertainment systems, airbag and supplemental restraints, electrical wiring repair, and utilizing in-depth repair software.

    Prerequisite(s): AUT 128  
    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate the ability to diagnosis a vehicle’s security and anti-theft system.
    2. Demonstrate understanding and diagnosis of power windows, power locks, and other electrical accessories.
    3. Demonstrate understanding and diagnosis of automotive audio and entertainment systems.
    4. Demonstrate understanding and diagnosis of supplemental restraint systems (SRS), and R&R a steering wheel, clock spring, and airbag assembly.
    5. Repair and replace electrical wiring, connectors, and terminals.
    6. Perform the removal/replacement of a door panel.
    7. Demonstrate knowledge of the Mitchel ProDemand service information software obtain a level 1 NC3 certification.
    8. Demonstrate knowledge of the Mitchel ProDemand service information software and obtain a level 2 NC3 certification.

    Outline:
    1. Security Systems
      1. Overview and purpose of security systems
      2. Passive (mechanical) security systems
      3. Active (electronic) security systems
      4. Common system designs (hall-effect, transponder, and resistor chip)
      5. Diagnostic procedures
      6. Pulling codes and observing live data with diagnostic scanner
    2. ProDemand Service Information
      1. Find vehicle repair procedures and specifications
      2. Utilize SureTrack to assist in diagnostic procedures
      3. Use integrated repair order function to streamline repair information
      4. Navigate and understand interactive wiring diagrams
    3. Headlight Aiming
      1. Fundamentals of light balance
      2. How to find an accurate level
      3. Utilizing alignment equipment to level headlights
    4. Wiring Mock-up
      1. Circuit types and components of a circuit: parallel, series, and combination
      2. Circuit design and grounding
      3. Wiring up and testing a complete automotive lighting system
    5. Electrical Connection and Terminal Replacement
      1. Terminal types
      2. Connectors 
      3. Replacement of terminals and connections
    6. Door Panel Removal and Replacement (R&R)
      1. Removal of door panel
      2. Panel inspection and repair
      3. Accessing accessories behind the door panel
      4. Panel installation
    7. Accessory Diagnosis and Repair
      1. Diagnosis of slow, intermittent or no operation of motor driven accessory circuits on the following:
      2. Power: windows/ mirrors/door locks/seats/moon roofs and door panel R&R
      3. Diagnosis of causes and repair of poor, intermittent or no heated glass operation
      4. Diagnosis of causes and repair of cruise control circuit malfunction
      5. Diagnosis of causes and repair of supplemental restraint system (SRS) malfunction
    8. Supplemental Restraint Systems(SRS): Diagnosis/Repair & Component R&R, Safety, Electrical
      1. Disabling the SRS system
      2. Removal of steering wheel and airbag
      3. Instillation of steering wheel and airbag
      4. Enabling the SRS system
      5. Diagnosing SRS system codes and common failure symptoms.
      6. Safe work habits and proper lifting/carrying of materials
      7. Proper clothing and protective equipment    
      8. Material Safety Data Sheets (MSDS)
      9. Occupational Safety Health Administration (OSHA) regulations     
      10. Fire extinguishers, exits and evacuation procedures
      11. Definition and effects of electricity
      12. Measurement and types of electricity:  voltage (AC/DC); amperage; resistance
      13. Actions of electricity: heat generation; chemical reaction; magnetism and electromagnetism
      14. Circuit types and components of a circuit: parallel, series and combination parallel/series circuits
      15. Diagnostic testing: high (opens & loose connections) and low resistance faults (shorts & grounds); digital multimeters


    Effective Term:
    Full Academic Year 2021/22
  
  • AUT 132 - Automotive Drivetrain Removal and Replacement

    3 Credits, 7 Contact Hours
    1 lecture period 6 lab periods

    Principles and procedures for automotive driveline component exchange. Includes personal and environmental safety, general drivetrain diagnosis, and diagnosis and repair of the clutch, automatic and manual transmissions and transaxle, drive axle and differential, and four-wheel drive components.

    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Perform removal of a manual transaxle assembly, clutch in a front wheel drive vehicle.
    2. Perform installation of a manual transaxle assembly, clutch in a front wheel drive vehicle.
    3. Perform an R&R of an electronic 10 speed automotive transmission W/ Tow Mode
    4. Demonstrate the ability to locate technical information installation procedures for a rear wheel drive vehicle using ProDemand software.
    5. Perform removal of a rear wheel drive (RWD) manual transmission and clutch.
    6. Perform installation of a rear wheel drive (RWD) manual transmission and clutch.
    7. Demonstrate the ability to locate technical service information removal/replacement procedures for a transfer case using ProDemand software.
    8. Perform removal/replacement of a transfer case.

    Outline:
    1. Personal and Environmental Safety
      1. Clothing and personal protection devices
      2. Fire Extinguishers location and use
      3. Material Safety Data Sheets (MSDS) location and application
    2. Automatic Transmission and Transaxle General Service
      1. Service, perform visual inspection, replace fluids and filters
      2. Inspect, adjust, or replace throttle valve (TV) linkages or cables manual shift linkages, or cables, transmission range sensor, and check gear indicator (as applicable)
      3. Inspect converter flex plate, attaching parts, pilot, oil pump drive and seal areas
    3. Automatic Transmission and Transaxle Remove, Reinstall, and Repair
      1. Transmission and torque converter (rear wheel drive)
      2. Transaxle and torque converter (front wheel drive)
      3. Inspect, replace, and align power train mounts (in-vehicle)
      4. Inspect and replace external seals and gaskets (in-vehicle)
    4. Manual Drive Train Remove and Reinstall
      1. Manual transmission and clutch
      2. Manual transaxle and clutch
      3. Transfer case
    5. Rear Axle and Driveshaft Remove and Reinstall
      1. Differentials in rear wheel drive
      2. Driveshaft in rear wheel drive
      3. Driveshaft in front wheel drive
    6. Sub-frame Assemblies Remove and Reinstall
      1. Sub-frame assemblies in front wheel drive
      2. Related components in front wheel drive


    Effective Term:
    Full Academic Year 2020/21
  
  • AUT 133 - Automatic Transmission/Transaxle Service and Rebuilding

    3 Credits, 7 Contact Hours
    1 lecture period 6 lab periods

    Principles and procedures for front- and rear-wheel drive automatic transmission overhaul. Includes personal and environmental safety, automatic transmission diagnosis and service, and transmission in-vehicle and off-vehicle repair.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate understanding of automatic transmission and transaxle operation
    2. Perform Pressure Testing and Diagnose Pressure Control Solenoids, Removal and Installation of a case connector
    3. Perform Overhaul Procedures for a FCA Transaxle.
    4. Perform Overhaul Procedures for a on a GM Automatic Transmission.
    5. Perform Overhaul Procedures for a FCA Automatic Transmission.
    6. Perform Overhaul Procedures for a Ford Automatic Transmission.
    7. Demonstrate the ability to locate Technical Service Information Transmission Overhaul Procedures for a Vehicle using ProDemand Software.

    Outline:
    1. Personal and Environmental Safety
      1. Clothing and personal protection devices.
      2. Fire extinguishers location and use.
      3. Material Safety Data Sheets (MSDS) location and application.
    2. Transmission Repair (In-vehicle)
      1. Inspect, adjust or replace (as applicable) vacuum modulator; inspect and repair or replace lines and hoses.
      2. Inspect and replace external seals and gaskets.
      3. Inspect extension housing, bushings and seals; perform necessary action
      4. Inspect, leak test, flush, and replace cooler, lines, and fittings.
      5. Diagnose electronic transmission control systems using a scan tool; determine necessary action.
    3. Transmission Repair (Off-vehicle)
      1. Disassemble, clean, and inspect transmission.
      2. Inspect servo bore, piston, seals, pin, spring, and retainers; determine necessary action.
      3. Inspect accumulator bore, piston, seals, spring, and retainer; determine necessary action.
      4. Assemble automatic transmission.
      5. Inspect, measure, and reseal oil pump assembly and components.
      6. Gear Train, Shafts, Bushings and Case.
        1. Measure endplay or preload; determine necessary action.
        2. Inspect, measure, and replace thrust washers and bearings.
        3. Inspect oil delivery seal rings, ring grooves, and sealing surface areas.
      7. Friction and Reaction Units
        1. Inspect clutch drum, piston, check-balls, springs, retainers, seals, and friction and pressure plates; determine necessary action.
        2. Measure clutch pack clearance; determine necessary action.
        3. Air test operation of clutch and servo assemblies.
        4. Inspect roller and sprag clutch, races, rollers, sprags, springs, cages, and retainers; replace as needed.
        5. Inspect bands and drums; determine necessary action.

     

    1. Automatic Transmission Diagnosis and Service
      1. Identify and interpret transmission concern; assure proper engine operation; determine necessary action.
      2. Diagnose fluid usage, level, and condition concerns; determine necessary action
      3. Perform pressure tests; determine necessary action.


    Effective Term:
    Full Academic Year 2020/21
  
  • AUT 136 - Automotive Manual Transmission and Driveline Service

    3 Credits, 7 Contact Hours
    1 lecture period 6 lab periods

    Principles and procedures for automotive driveline component overhaul. Includes personal and environmental safety, general drivetrain diagnosis, and diagnosis and repair of manual transmission and transaxle, drive shaft and half-shaft, universal and constant-velocity (CV) joint, drive axle and differential, limited slip differential, and four-wheel drive.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate knowledge on the design and operation of manual transmissions and drivelines
    2. Perform overhaul procedures on a transfer case.
    3. Perform Overhaul Procedures on a 6-speed transaxle
    4. Perform overhaul procedures on a Ford differential.
    5. Perform overhaul procedures on a 5-speed (T5) transmission.
    6. Perform overhaul procedures on a Ford limited slip differential.
    7. Perform overhaul procedures on a standard GM differential.
    8. Perform removal/replacement procedures on universal joints (U-Joints).

    Outline:
    1. Safety
      1. Fire extinguishers and exits
      2. Material Safety Data Sheet (MSDS) information
      3. Hazardous materials
    2. Manual Transmission Service
      1. Overhaul manual transmissions
      2. Overhaul manual transaxles
      3. Theory and principles of operation
    3. Front and Rear Axle Assembly assemblies
      1. Overhaul - differential assemblies
      2. Rear axle service
      3. Constant Velocity (CV) and universal joints
      4. Theory and principles of operation
    4. Transfer Cases/All Wheel Drive Assemblies
      1. Overhaul transfer cases
      2. Overhaul all wheel drive assemblies
      3. Theory and principles of operation


    Effective Term:
    Full Academic Year 2020/21
  
  • AUT 139 - Automotive Steering and Suspension Systems

    3 Credits, 7 Contact Hours
    1 lecture period 6 lab periods

    Introduces basic and advanced automotive steering and suspension system concepts, including theory, application, and repair. Includes steering systems, suspension systems, tires and wheel service, Advanced driver-assistance systems (ADAS), and electronic wheel alignments.

    Recommendation: Completion of AUT 101  and AUT 105 . If any recommended course is taken, see a financial aid or Veteran’s Affairs advisor to determine funding eligibility as appropriate. 
    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate knowledge of suspension system design and function
    2. Demonstrate tire wear diagnosis, and perform a tire dismount, repair, remount, and balance
    3. Perform a coil spring Removal and Replacement
    4. Perform a McPherson Strut Removal and Replacement
    5. Demonstrate knowledge of front suspension diagnosis and perform a full suspension Removal and Replacement
    6. Demonstrate knowledge of manual, hydraulic, and electric steering systems and perform a rack and pinion Removal and Replacement
    7. Demonstrate knowledge of Advanced driver-assistance systems (ADAS) function and operation and perform a camera realign procedure
    8. Demonstrate knowledge of alignment angles and perform a 4-wheel alignment procedure

    Outline:
    1. Suspension Fundamentals
      A. Suspension Components
      B. Suspension Designs
      C. Suspension Identification
    2. Tire Mounting, Repair, and Balancing
      A. Overview of Tire Design and Tire Purpose
      B. Inspecting Tires for Wear
      C. Mounting and Dismounting of Tires
      D. Balancing Tires
      E. SureTrack Purpose and Operation
    3. Coil Spring and Track Bar Service
      A. Coil Spring Design and Function
      B. Coil Spring Inspection and Diagnosis
      C. Servicing Coil Spring
    4. MacPherson Strut Service
      A. Macpherson Strut Inspection and Diagnosis
      B. Servicing MacPherson Strut
    5. Suspension Diagnosis and Repair
      A. Diagnosing suspension components
      B. Servicing suspension components
    6. Steering System Design and Repair
      A. Power components and design
      B. Power steering diagnosis
      C. Rack and pinion removal and replacement
    7. Advanced driver-assistance systems (ADAS
      A. ADAS purpose and design
      B. ADAS components and operation
      C. Performing camera realignment
    8. Wheel Alignment
      A. Overview of 4 Wheel Alignment and Purpose
      B. Pre-alignment Checks and Purpose
      C. 4 Wheel Alignment Service
    9. Safety and Hazardous Materials Handling
      A. Proper Clothing and Protective Equipment
      B. Safety Data Sheets (SDS)
      C. Occupational Safety Health Administration (OSHA) Regulations
      D. Fire Extinguishers, Exits and Evacuation Procedures   


    Effective Term:
    Fall 2022
  
  • AUT 140 - Automotive Brakes Diagnosis and Repair

    3 Credits, 7 Contact Hours
    1 lecture period 6 lab periods

    Diagnosis, service, and repair of automotive hydraulic brake systems. Includes hydraulic system diagnosis and repair, drum and disc brake inspection, diagnosis and repair, hydraulic system bleeding, ABS operation/diagnosis, and drum/disc brake cutting on both bench-mounted and on-car lathes.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate knowledge of hydraulic theory and general braking system operation  
    2. Demonstrate knowledge of disk brake systems and perform a disk brake service
    3. Demonstrate knowledge of drum brake systems and perform a drum brake service
    4. Perform a master cylinder R&R, bleed master cylinder, and perform a complete hydraulic system bleed procedure
    5. Perform a complete brake system inspection
    6. Demonstrate knowledge of anti-lock braking systems and diagnose ABS concerns
    7. Measure, mount, and cut drums/rotors on a bench-mounted brake lathe
    8. Perform an on-car brake lathe machining procedure

    Outline:
    1. General Brake Systems Diagnosis
      1. Complete work order to include customer information, vehicle identifying information, customer concern, related service history, cause, and correction.
      2. Identify and interpret brake system concern; determine necessary action.
      3. Research applicable vehicle and service information; such as brake system operation, vehicle service history, service precautions, and technical service bulletins.
      4. Locate and interpret vehicle and major component identification numbers
    2. Hydraulic System Diagnosis and Repair
      1. Diagnose pressure concerns in the brake system using hydraulic principles (Pascal’s Law).
      2. Measure brake pedal height, travel, and free play (as applicable); determine necessary action.
      3. Check master cylinder for internal/external leaks and proper operation; determine necessary action.
      4. Remove, bench bleed, and reinstall master cylinder.
      5. Diagnose poor stopping, pulling or dragging concerns caused by malfunctions in the hydraulic system; determine necessary action.
      6. Inspect brake lines, flexible hoses, and fittings for leaks, dents, kinks, rust, cracks, bulging or wear; tighten loose fittings and supports; determine necessary action.
      7. Replace brake lines, hoses, fittings, and supports.
      8. Fabricate brake lines using proper material and flaring procedures (double flare and ISO types).
      9. Select, handle, store, and fill brake fluids to proper level.
      10. Inspect, test, and/or replace metering (hold-off), proportioning (balance), pressure differential, and combination valves.
      11. Inspect, test, and/or replace components of brake warning light system.
      12. Bleed and/or flush brake system.
      13. Test brake fluid for contamination.
    3. Drum Brake Diagnosis and Repair
      1. Diagnose poor stopping, noise, vibration, pulling, grabbing, dragging, or pedal pulsation concerns; determine necessary action.
      2. Remove, clean, inspect, and measure brake drums; determine necessary action.
      3. Refinish brake drum; measure final drum diameter.
      4. Remove, clean, and inspect brake shoes, springs, pins, clips, levers, adjustors/self-adjustors, other related brake hardware, and backing support plates; lubricate and reassemble.
      5. Inspect and install wheel cylinders.
      6. Pre-adjust brake shoes and parking brake; install brake drums or drum/hub assemblies and wheel bearings.
      7. Install wheel, torque lug nuts, and make final checks and adjustments.
    4. Disc Brake Diagnosis and Repair
      1. Diagnose poor stopping, noise, vibration, pulling, grabbing, dragging, or pulsation concerns; determine necessary action.
      2. Remove caliper assembly; inspect for leaks and damage to caliper housing; determine necessary action.
      3. Clean and inspect caliper mounting and slides/pins for operation; wear, and damage; determine necessary action.
      4. Remove, inspect and replace pads and retaining hardware; determine necessary action.
      5. Disassemble and clean caliper assembly; inspect parts for wear, rust, scoring, and damage; replace seal, boot, and damaged or worn parts.
      6. Reassemble, lubricate, and install caliper, pads, and related hardware; seat pads, and inspect for leaks.
      7. Clean, inspect, and measure rotor thickness, lateral runout, and thickness variation; determine necessary action.
      8. Remove and reinstall rotor. 
      9. Refinish rotor on vehicle; measure final rotor thickness.
      10. Refinish rotor off vehicle; measure final rotor thickness.
      11. Retract caliper piston on an integrated parking brake system.
      12. Install wheel, torque lug nuts, and make final checks and adjustments.
      13. Check brake pad wear indicator system operation; determine necessary action.
    5. Power Assist Units Diagnosis and Repair
      1. Test pedal free travel; check power assist operation.
      2. Check vacuum supply to vacuum-type power booster.
      3. Inspect the vacuum-type power booster unit for leaks; inspect the check valve for proper operation; determine necessary action.
      4. Inspect and test hydraulically assisted power brake system for leaks and proper operation; determine necessary action.
      5. Measure and adjust master cylinder pushrod length.
    6. Miscellaneous (Wheel Bearings, Parking Brakes, Electrical, Etc.) Diagnosis and Repair
      1. Diagnose wheel bearing noises, wheel shimmy, and vibration concerns; determine necessary action.
      2. Remove, clean, inspect, repack, and install wheel bearings and replace seals; install hub and adjust bearings.
      3. Check parking cables and components for wear, binding, and corrosion; clean, lubricate, adjust or replace as needed.
      4. Check parking brake and indicator system operation; determine necessary action.
      5. Check operation of brake stop light system; determine necessary action.
      6. Replace wheel bearing and race.
      7. Inspect and replace wheel studs.
      8. Remove and reinstall sealed wheel bearing assembly.
    7. Electronic Brake, Traction and Stability Control Systems Diagnosis and Repair.
      1. Identify and inspect electronic brake control system components; determine necessary action.
      2. Diagnose poor stopping, wheel lock-up, abnormal pedal feel, unwanted application, and noise concerns associated with the electronic brake control system; determine necessary action.
      3. Diagnose electronic brake control system electronic control(s) and components by retrieving diagnostic trouble codes, and/or using recommended test equipment; determine necessary action.
      4. Depressurize high-pressure components of the electronic brake control system.
      5. Bleed the electronic control system hydraulic circuits.
      6. Remove and install electronic brake control system electrical/electronic and hydraulic components.
      7. Test, diagnose, and service electronic brake control system sped sensors (digital and analog), toothed ring (tone wheel), and circuits using a graphing multimeter (GMM)/digital storage oscilloscope (DSO)(includes output signal, resistance, shorts to voltage/ground, and frequency data).
      8. Diagnose electronic brake control system braking concerns cause by vehicle modifications (tire size, curb height, final drive ratio, etc.).
      9. Identify traction control/vehicle stability control system components.
      10. Describe the operation of a regenerative braking system.


    Effective Term:
    Fall 2022
  
  • AUT 142 - Automotive Heating, Ventilation, and Air Conditioning

    3 Credits, 7 Contact Hours
    1 lecture period 6 lab periods

    Diagnosis and repair of automotive heating, ventilation, and air conditioning (HVAC) systems. Includes personal and environmental safety, refrigerant handling and EPA licensing, HVAC systems components, air conditioning (A/C) diagnosis and repair, heating systems diagnosis and repair, controls diagnosis and repair, and refrigerant recovery, recycling, and handling.

    Prerequisite(s): AUT 128  
    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate understanding of air conditioning (A/C) theory, components, and operation.
    2. Perform reclaim/evacuate/recharge procedures using an air conditioning (A/C) reclaimer.
    3. Perform A/C condenser and compressor R&R and flush the system
    4. Demonstrate understanding of vehicle heating systems and perform diagnostics
    5. Demonstrate understanding of vehicle A/C controls and blend doors, and perform diagnostics
    6. Understand A/C performance testing and perform an A/C performance test
    7. Troubleshoot and repair common A/C system failures
    8. Demonstrate knowledge of proper automotive refrigerant handling and disposal and obtain an EPA 609 Handlers Certification

    Outline:
    1. HVAC Fundamentals
      A.  Thermodynamics and Energy Transfer
      B.  States of Matter
      C.  A/C System Operation
      D.  Design and Function of A/C System Components
    2. Automotive HVAC Refrigerant and Recycling
      A.  Automotive Refrigerants
      B.  Refrigerant Oils
      C.  System Service
      D. Refrigerant Recovery and Evacuation
    3. Compressor/Condenser R&R and System Flushing
      A.  Types of A/C Compressors
      B.  Pressure Switches and Sensors
      C. Condenser Designs
      D.  Compressor and Condenser R&R
      E.  System Flushing
    4. Heating Systems
      A.  Purpose of Vehicle Heating
      B.  Styles of Heating Systems
      C.  Heating System Inspection
      D.  Heating System Diagnosis
    5. Electronic Controls and Blend Doors Diagnosis
      A.  Heater Controls
      B.  Blend and Recirculation Doors
      C.  Blower Motor and Resistor
      D.  HVAC housing and Ducts
      E.  A/C Control Head (Digital/ Analog)
      F.  Dual Zone A/C
      G.  Window Defogger
    6. A/C System Performance Testing
      A. Humidity
      B. System Heat Load
      C. Performance Testing
      D. Reading Pressure Charts
      E. Diagnostics Overview
    7. HVAC Diagnosis
      A.  Low Refrigerant Charge Diagnosis
      B.  Leak Detection
      C.  Condenser Diagnosis
      C. Compressor Diagnosis
      D.  Pulling Codes and Sensor Diagnosis
    8. EPA 609 Handlers License
      A. History of refrigerant regulation
      B. Effect of refrigerant on the environment
      C. Proper refrigerant handling and storage
      D. Refrigerant safety concerns
      E. EPA 609 handlers license test
    9. Safety and Hazardous Materials Handling
      1. Safe work habits and proper lifting/carrying of materials
      2. Proper clothing and protective equipment 
      3. Material Safety Data Sheets (MSDS)
      4. Occupational Safety Health Administration (OSHA) regulations
      5. Fire extinguishers, exits and evacuation procedures


    Effective Term:
    Fall 2023

Autonomous Vehicle Technology

  
  • AUV 101 - Introduction to Autonomous Vehicles

    2 Credits, 2 Contact Hours
    2 lecture periods 0 lab periods

    Introduction to autonomous vehicles (AV). Includes history of AV, levels of autonomy, introduction to the technology utilized, ethics, laws, and security.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Describe the autonomous vehicle technology and the necessary systems security consideration.
    2. Describe the ethical and legal considerations of autonomous vehicles.
    3. Demonstrate a basic understanding of the levels of autonomy.
    4. Demonstrate a basic understanding of the history and benefits of autonomous vehicles.
    5. Demonstrate effective written and verbal communication.
    6. Practice troubleshooting information.

    Outline:
    1. History of Autonomous Vehicles (AV)       
      1. Applications in the following industries:
        1. Aviation
        2. Mining
        3. Passenger car
        4. Trucking industries
        5. Emerging technologies
    2. Levels of Autonomy and the Definitions
      1. Identify, compare and contrast the various levels of autonomy
    3. Autonomous Vehicles and Smart Cities
      1. The impact of autonomous vehicles on infrastructure
    4. Benefits of AV
      1. Safety implications
      2. Efficiency
      3. Consistency
      4. Capacity implications
    5. AV Technology
      1. Light Detection and Ranging (LIDAR)
      2. Radar
      3. Cameras
      4. Global Positioning System (GPS)
      5. Compare and contrast technologies utilized in industry
      6. Mapping
        1. Pre-Collected
        2. Real-time – Simultaneous Localization and Mapping (SLAM)
    6. Ethical Considerations
      1. Driver in-vehicle
        1. Crash case studies
      2. Driver out-of-vehicle
        1. Crisis decision-making
    7. Workforce Implications
      1. Upskilling
      2. Teams/single person/full driverless
      3. Off-vehicle jobs in support of full driverless
    8. Systems Security
      1. Access control
      2. Basic computer security
        1. Safety
        2. Specified system Internet Protocol (IP) addresses
        3. Systems containment
    9. Troubleshooting Autonomous Vehicle Operations
      1. Principles of troubleshooting
      2. Verbal and written communication
    10. Physical Security
      1. Access control
      2. Vandalism
      3. Bullying/crowding vehicle
    11. Legal
      1. Jurisdiction
        1. State laws regarding autonomous vehicles
        2. Law enforcement – ticket issuance
    12. Commercial Vehicle Driving
      1. Federal Motor Carrier Safety Administration
        1. Hours of Service implications
        2. Roadside inspections
    13. Human Trafficking


    Effective Term:
    Full Academic Year 2019/20

Aviation Technology

  
  • AV 160 - Part 65 Airframe and Powerplant

    64 Clock Hours, 0 Credits, 64 Contact Hours
    0 lecture periods 0 lab periods

    This 64-hour noncredit clock hour course addresses general aviation information for experienced aircraft mechanics that possess Federal Aviation Administration (FAA) authorization for certification and seek to close gaps in their knowledge. Includes maintenance fundamentals such as Federal Aviation Regulations, aviation math, aircraft drawings, and basic electricity. Also includes hands-on competencies to increase knowledge by performing inspections, functional checks, and adjustments on a multitude of airframe and powerplant systems; and gain specialized skills in aircraft structural repair.

    Button linking to AZ Transfer course equivalency guide  

  
  • AV 160A - Part 65 Airframe and Powerplant A: General Mechanics

    20 Clock Hours, 0 Credits, 20 Contact Hours
    0 lecture periods 0 lab periods

    This 20-hour noncredit clock hour course constitutes approximately one-third of AV 160  (AV 160A, AV 160B  and AV 160C  together constitutes AV 160 ), and addresses general aviation information for experienced aircraft mechanics that possess Federal Aviation Administration (FAA) authorization for certification and seek to close gaps in their knowledge. Includes maintenance fundamentals such as Federal Aviation Regulations, aviation math, aircraft drawings, and basic electricity. Also includes hands-on competencies to increase knowledge by performing inspections, functional checks, and adjustments on a multitude of airframe and powerplant systems; and gain specialized skills in aircraft structural repair.

    Button linking to AZ Transfer course equivalency guide  

  
  • AV 160B - Part 65 Airframe and Powerplant B: Airframe Mechanics

    24 Clock Hours, 0 Credits, 24 Contact Hours
    0 lecture periods 0 lab periods

    This 24-hour noncredit clock hour course constitutes approximately one-third of AV 160  (AV 160A , AV 160B, and AV 160C  together constitutes AV 160 ), and addresses general aviation information for experienced aircraft mechanics that possess Federal Aviation Administration (FAA) authorization for certification and seek to close gaps in their knowledge. Includes maintenance fundamentals such as Federal Aviation Regulations, aviation math, aircraft drawings, and basic electricity. Also includes hands-on competencies to increase knowledge by performing inspections, functional checks, and adjustments on a multitude of airframe and powerplant systems; and gain specialized skills in aircraft structural repair.

    Prerequisite(s): AV 160A  or concurrent enrollment.
    Button linking to AZ Transfer course equivalency guide  

  
  • AV 160C - Part 65 Airframe and Powerplant C: Powerplant Mechanics

    20 Clock Hours, 0 Credits, 20 Contact Hours
    0 lecture periods 0 lab periods

    This 20-hour noncredit clock hour course constitutes approximately one-third of AV 160  (AV 160A , AV 160B , and AV 160C together constitutes AV 160 ), and addresses general aviation information for experienced aircraft mechanics that possess Federal Aviation Administration (FAA) authorization for certification and seek to close gaps in their knowledge. Includes maintenance fundamentals such as Federal Aviation Regulations, aviation math, aircraft drawings, and basic electricity. Also includes hands-on competencies to increase knowledge by performing inspections, functional checks, and adjustments on a multitude of airframe and powerplant systems; and gain specialized skills in aircraft structural repair.

    Prerequisite(s): AV 160A  or concurrent enrollment.
    Button linking to AZ Transfer course equivalency guide  

  
  • AVM 100A - Aircraft Maintenance Fundamentals: Module A

    3 Credits, 6 Contact Hours
    1 lecture period 5 lab periods

    Introduction to the fundamental knowledge and skill requirements of an Airframe and Powerplant mechanic. Includes fasteners, safety and rigging, aircraft maintenance tools, aircraft types and construction, aircraft materials, theory of flight, and aircraft structures.

    Information: Constitutes approximately the first one-half of AVM 100 . AVM 100A and AVM 100B  together constitute AVM 100 .
    Button linking to AZ Transfer course equivalency guide  



    Course Learning Outcomes
    1. Describe the work requirements and the responsibilities of a qualified Airframe and Powerplant (A&P) mechanic as described in Title 14 Code of Federal Regulations.
    2. Identify different types of fasteners and their uses, and demonstrate methods of locking those fasteners.
    3. Discuss the work environment of an A&P mechanic, workplace hazards, personal safety procedures, facility and ramp safety procedures, steps to be taken in an emergency, and fire protection procedures; identify the correct fire extinguisher type and techniques for the different classes of fire; and describe the correct safe procedures for starting, moving and servicing aircraft and ground support equipment, and erecting and using stands and scaffolding.
    4. Discuss the tools and equipment available to the A&P mechanic and their use and maintenance: safety rules and proper use of hand tools, sheet metal machines, material handling equipment, cutting tools, and measuring tools.
    5. Identify and describe different types of aircraft and how they are constructed; basic components of an aircraft; differences in aircraft structures; and airfoil design.
    6. Identify different types of aircraft materials, their uses, and indications of corrosion; demonstrate the removal and treatment of corrosion.
    7. Describe why and how an aircraft flies, and discuss the principles related to aerodynamics, theory of flight, airfoil characteristics, and fundamentals of lift production.
    8. Discuss the materials and processes involved in aircraft construction; identify and compare aircraft structural materials; and describe a basic level of heat treatment processes, dye-penetrant, eddy current, and ultrasonic and magnetic particle inspections.
    9. Identify types of aircraft corrosion and its removal and treatment, and select the appropriate cleaning solutions for various materials.

    Outline:
    1. Airframe and Powerplant Mechanics
      1. Airframe (A)
      2. Powerplant (P)
      3. Structures
      4. Avionics
      5. Responsibilities and limitations of A&P certification
      6. Qualification requirements for A&P certification
      7. Types of work
      8. Terminology
      9. Technical data
    2. Fasteners
      1. Threaded
      2. Rivets
      3. Adhesives
      4. Special
    3. Safety and Rigging
      1. Personal
      2. Facility
      3. Aircraft
      4. Equipment
      5. Fire
      6. Fluids
      7. Chemicals
      8. Aircraft movements
      9. Human factors
    4. Aircraft Maintenance Tools
      1. Hand tools
      2. Power tools
      3. Measuring tools
      4. Special tools
    5. Aircraft Types and Construction
      1. Fixed wing
        1. Monoplanes
        2. Biplanes/ triplanes
        3. Canard
        4. Tandem
      2. Rotary wing
        1. Helicopter
        2. Autogyro
        3. Ornithopter
      3. Flight controls
        1. Primary
        2. Secondary
      4. Landing gear 
        1. Fixed
        2. Retractable
        3. Floats
        4. Skis
    6. Aircraft Materials
      1. Wood
      2. Metal
      3. Man made
      4. Sealants
      5. Cleaning
      6. Removal and inhibition of corrosion
      7. Repair
      8. Technical data
    7. Theory of Flight
      1. Theory of flight
      2. History of flight
      3. Basic aerodynamics
      4. Weight and balance
      5. Atmospheric conditions
      6. Propulsion requirements
    8. Aircraft Structures
      1. Primary structure
        1. Wood
        2. Metal
        3. Composite
      2. Secondary structure
        1. Wood
        2. Metal
        3. Composite
        4. Plastic
      3. Aircraft covering
      4. Protective finishes
      5. Corrosion
        1. Identification
        2. Removal
        3. Treatment
      6. Repair

     


    Effective Term:
    Full Academic Year 2021/2022

  
  • AVM 100B - Aircraft Maintenance Fundamentals: Module B

    3 Credits, 6 Contact Hours
    1 lecture period 5 lab periods

    Introduction to the fundamental knowledge and skill requirements of an airframe and powerplant mechanic. Includes powerplant types, aircraft assembly, engine theory, aircraft repair, aircraft reciprocating engine overhaul/repair, aircraft maintenance, aircraft systems and components, rigging flight controls, and jacking aircraft.

    Prerequisite(s): AVM 100A  
    Information: Constitutes approximately the second one-half of AVM 100 . AVM 100A  and AVM 100B together constitute AVM 100 .
    Button linking to AZ Transfer course equivalency guide  



    Course Learning Outcomes
    1. Discuss the methods used to propel an aircraft; aircraft powerplant configurations; manufacturers and classification used by the aviation industry; the principles of operation and mechanics behind energy transformation; the factors effecting power and the distribution of power; propeller components; and typical nomenclature used in the inspection, servicing, and repairs of aircraft engines.
    2. Identify different parts of an aircraft and demonstrate how to assemble and disassemble them using technical data.
    3. Describe how aircraft engines work.
    4. Identify different types of damage and demonstrate the methods used to repair that damage.
    5. Discuss aircraft engine components and their purpose; perform visual, dimensional, and non-destructive inspections used in aircraft reciprocating engine overhaul; and demonstrate the proper methods of cleaning and storing engine components in preparation for inspection, repair, or overhaul.
    6. Discuss the scope of work required of an A&P mechanic during routine and non-routine inspections.
    7. Describe the principles of hydraulic and pneumatic power systems, and the system requirements for small and large aircraft by comparison of their needs; identify hydraulic, electrical, and pneumatic system components both physically and operationally (including hydraulic fluids) and match them with their proper seal, line and “O” ring materials; and identify and discuss the basic mechanics used to power or transfer information on aircraft/engine instrument systems.
    8. Identify different control surfaces and their specific purpose, and demonstrate inspection and maintenance.
    9. Demonstrate the safe procedure for jacking aircraft and making it safe while jacked.

    Outline:
    1. Powerplant Types
      1. Reciprocating engines
        1. Air cooled
        2. Liquid cooled
        3. Rotary
        4. Radial
        5. Inline
        6. Horizontally opposed
        7. ‘V’; ‘H’; ‘X’;
        8. Tandem
        9. Inverted
      2. Gas turbine engines  
        1. Centrifugal flow
        2. Axial flow
        3. Turboprop
      3. Selection for use
      4. Propeller constructions          
        1. Wood
        2. Steel
        3. Aluminum
        4. Composite
      5. Propeller types
        1. Fixed pitch
        2. Controllable pitch
        3. Contra-rotating
      6. Propeller governors
      7. Ram jet
      8. Rocket
      9. Pulse jet
      10. Engine starting and ignition
    2. Aircraft Assembly
      1. Technical data
      2. Major components
      3. Procedures
    3. Engine Theory
      1. Reciprocating engines
      2. Gas turbine engines
      3. Ram, rocket and pulse jet
      4. Fuels, fuel systems, and fuel storage
      5. Lubricants and lubricating systems
      6. Cooling
    4. Aircraft Repair
      1. Damage identification
      2. Damage assessment
      3. Types of repair
      4. Required procedures following a repair.
      5. Technical data
    5. Aircraft Reciprocating Engine Overhaul/Repair
      1. Dismantle
      2. Cleaning
      3. Inspection
      4. Inspection of components
      5. Identification of parts
      6. Measuring parts
      7. Engine reassembly
      8. Technical data
    6. Aircraft Maintenance
      1. Requirements
      2. Regulations
      3. Procedures
      4. ATA codes
      5. Inspection
      6. Technical data
      7. Repair
      8. Special equipment
    7. Aircraft Systems and Components
      1. Mechanical
      2. Pneumatic
      3. Hydraulic
      4. Electrical
      5. Flight instruments
      6. Engine instruments
      7. Auxiliary instruments
    8. Rigging Flight Controls
      1. Identification
      2. Technical data
      3. Procedures
      4. Inspection
      5. Control surface balancing.
    9. Jacking Aircraft
      1. Equipment inspection
      2. Aircraft preparation
      3. Procedures
      4. Technical data

     


    Effective Term:
    Full Academic Year 2021/2022

  
  • AVM 105 - Aircraft Sheet Metal Repair I

    3.5 Credits, 8 Contact Hours
    1.25 lecture periods 6.75 lab periods

    Principles and procedures for fuselage, wing, and empennage sheet metal repair. Includes safety, hand tools, layout methods, materials, fasteners, repair techniques, parts fabrication, and corrosion prevention and control.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage



    Course Learning Outcomes
    1. Demonstrate proficient knowledge of applicable safety procedures and machine operation
    2. Demonstrate proficiency in the identification and use of aircraft fasteners and pattern layout
    3. Demonstrate proficient knowledge of various parts fabrication processes
    4. Demonstrate proficient knowledge of various inspection and repair techniques

    Outline:
    1. Safety Procedures and Machine Operation
      1. Safety
        1. Hand tools
        2. Shop
        3. Sheet metal machines
        4. Safety around aircraft
        5. Materials handling
      2. Hand tools and equipment used in sheet metal repair
        1. Basic mechanic hand tools
        2. Sheet metal mechanic hand tools
        3. Forming, shearing and bending equipment
    2. Aircraft Fasteners and Pattern Layout
      1. Aircraft Fasteners
        1. Solid
        2. Blind
        3. Special
        4. Installation and removal techniques
      2. Basic sheet metal layout methods and repair operations
        1. Blueprint review
        2. Mathematical determination of fastener placement
        3. Measuring tools
        4. Inspection methods
    3. Fabrication Processes
      1. Aircraft structural materials
        1. Aluminum designations
        2. Alloying
        3. Material characteristics
        4. Heat treatments
      2. Parts fabrication
        1. Forming
        2. Rolling
        3. Shearing
        4. Shrinking and stretching
        5. Bend allowance and bending
    4. Inspection and Repair Techniques
      1. Aircraft repair techniques
        1. Single Pilot Resource Management (SRM) usage
        2. Maintenance manuals
        3. Scab repairs
        4. Flush repairs
        5. Splicing repairs
        6. Built up repairs
      2. Corrosion Prevention and Control
        1. Types
        2. Identification
        3. Removal
        4. Treatment

     


    Effective Term:
    Full Academic Year 2021/2022

  
  • AVM 106 - Aircraft Sheet Metal Repair II

    3.5 Credits, 8 Contact Hours
    1.25 lecture periods 6.75 lab periods

    Continuation of AVM 105 . Includes safety, bend allowance, layout, fasteners, machine usage, patching techniques and structural repair techniques.

    Prerequisite(s): AVM 105  
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Calculate bend allowance mathematical determinations and perform layout in preparation for bending.
    2. Demonstrate equipment set-up and equipment operation for required bend allowance specifications.
    3. Describe use and safety requirements for bending, rolling, cutting, dimpling, squeeze riveting and shaving equipment.
    4. Identify structural fasteners by type, use, and size.
    5. Demonstrate installation procedures for structural fasteners.
    6. Describe shear, tensile and bearing strength analysis techniques required in the layout of structural repairs.
    7. Demonstrate several types of structural repairs to an aircraft.

    Outline:
    1. Bend Allowance
      1. Mathematical determination
      2. Layout
      3. Radius requirements
      4. Equipment set-up
      5. Bending procedures
    2. Machine Safety and Use
      1. Cornice brake
      2. Box and pan brake
      3. Slip rolls
      4. Contour band saw
      5. Dimplings
    3. Structural Fasteners
      1. Function
      2. Use
      3. Size
      4. Installation
    4. Strength Analysis Techniques
      1. Shear
      2. Tensile
      3. Bearing
    5. Fabrication from a Blueprint
      1. Hand forming
      2. Joggling
      3. Shrinking
    6. Stretching
      1. Stress Relieving
      2. Clean up
    7. Structural Repairs
      1. Fuselage Repair - Flat
      2. Fuselage Repair - Curved
      3. Frame Repair
      4. Stringer Repair
      5. Sheet Replacement
      6. Section Replacement


    Effective Term:
    Full Academic Year 2021/22
  
  • AVM 110 - Aircraft Blueprint Reading

    3 Credits, 3 Contact Hours
    3 lecture periods 0 lab periods

    Theory and application of aircraft blueprint reading. Includes types of aircraft drawings, measuring tools, drawing and lay-out equipment, types of views, projections, reference lines, drawing format, title block, manufacturing codes, symbology for fasteners, hardware, and materials. Also includes production of aircraft drawing, sketches, usage of aircraft schematics, graphs, charts, detail, assembly and exploded diagrams.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of mechanical drawings and their history
    2. Demonstrate proficient use of measurements and drawing techniques
    3. Demonstrate proficient use of blueprint references and standards
    4. Demonstrate proficient ability to interpret and apply print data

    Outline:
    1. Basic Concepts of Blueprint Layout (0.5 class hours)
      1. History
      2. Manufacturing usage
      3. Repair and modification C.A.D. drawings
    2. Measurement Tools (2.0 class hours)
      1. Scale reading in 1/16 inch, 1/10 inch increments
      2. Micrometer reading
      3. Measurement transfer tooling
    3. Drawing and Layout Equipment (1.0 class hours)
      1. Dividers
      2. T-square
      3. Triangles
      4. Compass
      5. Curves
      6. Templates
      7. Radius gauges
    4. View and Projections (1.0 class hours)
      1. Perspective
      2. Oblique
      3. Isometric
    5. Types of Drawing Lines (4.0 class hours)
      1. Object
      2. Hidden
      3. Phantom
      4. Centerline
      5. Extension
      6. Dimension
      7. Cutting plane
      8. Leader
    6. Reference Lines (2.0 class hours)
      1. Water line (WL)
      2. Buttock line (BL)
      3. Fuselage station (FS)
      4. Wing station (WS)
      5. FFS front spar station
      6. Wing buttock line (SBL)
      7. Mean aerodynamic chord (MAC)
      8. Leading edge (L.E.)
      9. Trailing edge (T.E.)
      10. Zone diagrams
      11. Body section
      12.  doors and panels
    7. Types of Drawings (4.0 class hours)
      1. Detail
      2. Assembly
      3. Installation
      4. Production
      5. Schematics
      6. Exploded diagrams
    8. Drawing Format (4.0 class hours)
      1. Nomenclature
      2. Drawing number
      3. Numbering of pages
      4. Scale
      5. Revisions
      6. Left and right parts
      7. Part numbers
      8. Approvals
      9. Zoning
      10. List of materials
    9. Drawing Techniques (10.0 class hours)
      1. Pencil lines
      2. Use of compass
      3. Use of the T-square
      4. Use of dividers
      5. Dimensioning and tolerances
      6. Lettering
      7. Title block development
      8. Sketches
    10. Production and Repair Standards Usage (0.5 class hours)
      1. Military standards (MS)
      2. Structural repair manuals
      3. Army Navy (AN)
    11. Aircraft Blueprint Interpretations (3.0 class hours)
      1. Use of prints for transfer of information
      2. Interpretation of the presented format
      3. Interpretation of charts and graphs
      4. Applicability of notes and instructions
    12. Charts and Graphs
      1. Typical layout
      2. Usage


    Effective Term:
    Fall 2019
  
  • AVM 114 - Regulatory Requirements

    3 Credits, 3 Contact Hours
    3 lecture periods 0 lab periods

    Federal Aviation Administration (FAA) regulatory requirements. Includes certification of aircraft and components, FAA regulations for aircraft maintenance, FAA publications, manufacturing standards, inspection requirements, maintenance, mechanic certification, maintenance publications and forms, and aircraft logs.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of aircraft certifications and regulations
    2. Demonstrate proficient knowledge of aircraft publications
    3. Demonstrate proficient knowledge of aircraft inspections
    4. Demonstrate proficient knowledge of aircraft records and forms

    Outline:
    1. Certification
      1. Terms and abbreviations
      2. Part 23 aircraft
      3. Part 25 aircraft
      4. Experimental
      5. Restricted
      6. Limited
      7. Special use
      8. Aircraft specifications and type certificate data sheets
    2. FAA Regulations
      1. Part 1
      2. Part 21
      3. Part 23
      4. Part 25
      5. Part 39
      6. Part 43
      7. Part 61
      8. Part 65
      9. Part 91
      10. Part 121
      11. Part 135
      12. Part 145
      13. Part 147
    3. FAA Publications
      1. Advisory circular
      2. Alerts
      3. Airworthiness directives
    4. Manufacturing standards
      1. Type certificates (TC)
      2. Aircraft specifications
      3. Aircraft listings
      4. Supplemental type certificates (STC)
      5. Parts manufacturers approvals (PMA)
      6. Technical standard orders (TSO)
      7. ATA specification 100
    5. Inspection Requirements
      1. Preflight
      2. 50 hour
      3. 100 hour
      4. Annual
      5. Progressive
      6. Check system
    6. Maintenance
      1. Preventive
      2. Alterations
      3. Rebuilding
      4. Minor repairs and alterations
      5. Major repairs and alterations
    7. Certifications of Mechanics
      1. Eligibility requirements
      2. Repairmen
      3. Airframe
      4. Powerplant
      5. Inspection authorization
      6. Duration of certificates
    8. Maintenance Publications
      1. Service bulletin (SE)
      2. Service manual (SM)
      3. Maintenance manual (MM)
      4. Illustrated parts catalog (IPC)
      5. Structural repair manual (SRM)
      6. Overhaul manual (OM)
      7. Operation manual
    9. Maintenance Forms and Logs
      1. AA Form 337
        1. Acceptable data
        2. Approved data
        3. Field approval
      2. 8130-3 form
      3. Colored tag system
      4. Aircraft maintenance records
      5. Aircraft log books


    Effective Term:
    Fall 2019
  
  • AVM 130 - Aircraft Composite Repair I

    3.5 Credits, 8 Contact Hours
    1.25 lecture periods 6.75 lab periods

    Construction and repair processes using advanced composite materials. Includes reinforcing fibers, matrix and core materials, manufacturing of components, composite safety, curing wet layup and prepreg repairs, tools and equipment, and inspection and damage assessment.

    Information: Consent of instructor is required before enrolling in this course.
    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of composite materials and nomenclature
    2. Demonstrate proficient knowledge of composite fabrication and curing
    3. Demonstrate proficient knowledge of applicable safety procedures and machine operation
    4. Demonstrate proficient knowledge of various composite repair techniques

    Outline:
    1. Material and Nomenclature
      1. Types and applications of reinforcing fibers
        1. Fiberglass cloth
        2. Aramid fabrics
        3. Carbon graphite
        4. Fiber placement
        5. Fiber usage
        6. Fabric styles
        7. Ply orientation
      2. Matrix Materials
        1. Matrix systems
        2. Thermo sets
        3. Thermo plastics
        4. Lay-ups
        5. Wet
        6. Prepreg
      3. Core Materials
        1. Honeycomb
        2. Foam cores
        3. Wood cores
    2. Fabrication and Curing
      1. Manufacturing of components
        1. Heat and pressure
        2. Manufacturing methods
        3. Lighting protection
        4. Electrical bonding
        5. Composite part finishing
      2. Curing and Repairs
        1. Room temp cures
        2. Vacuum bagging
        3. Heat curing - hot bonders
        4. Heat curing - oven
    3. Safety Procedure and Machine Operation
      1. Composite Safety
        1. Material safety data sheets
        2. Personal safety with chemicals
        3. Solvents: usage and safety
        4. Personal safety while machining
      2. Tools and equipment
        1. Cutting fabrics
        2. Machining cured composites
        3. Machining acrylics
        4. Facilities
    4. Repair Techniques
      1. Assessment of damage
        1. Classification of damage
        2. Types of damage
        3. Inspection methodology
        4. Repair operations
        5. Repair procedures
      2. Types of Repairs
        1. Declamation
        2. Disbonding
        3. Typical repair procedures
        4. Damage to monolithic laminate structure
        5. Repairs to honeycomb structures
        6. Repairs to thermoplastics
      3. Repair Procedures
        1. Structural Repair Manual (SRM) procedures
        2. Fiberglass monolithic lay-up
        3. Fiberglass sandwich lay-up
        4. Aramid fiber sandwich lay-up
        5. Carbon fiber sandwich lay-up
        6. Single sided step sand repair
        7. Single sided scarf repair
        8. Double sided scarf repair
        9. Edge band repair
        10. Thermo plastic bond
        11. Fastener installations


    Effective Term:
    Full Academic Year 2021/22
  
  • AVM 150 - Aircraft Sheet Metal Repair III

    4 Credits, 8 Contact Hours
    2 lecture periods 6 lab periods

    Continuation of AVM 106 . Includes repair publications, materials handling, cable fabrication, machining processes, protective coatings, hand forming and structural repair processes.

    Prerequisite(s): AVM 106  
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Demonstrate the use of the Structural Repair Manual (SRM), Illustrated Parts Catalog (IPC), Service Bulletins (SBs), Airworthiness Directives (ADs), Supplemental Type Certificates (STCs), and Engineering Orders (EOs).
    2. Describe the methods of material handling and material verification.
    3. Describe and demonstrate drilling, reaming, heli-coil installation, routing, spot facing, counter boring, torqueing, and jigging.
    4. Describe and demonstrate coating applications.
    5. Describe and demonstrate hand forming of flanges, concave curvatures, and convex curvatures.
    6. Describe layout procedures and perform dent repair, web repair, skin repair, and spar repair.

    Outline:
    1. Repair Publication Use
      1. SRM
      2. IPC
      3. SBs
      4. ADs
      5. STCs
      6. EOs
      7. Blueprint reading
    2. Materials Handling and Verification
      1. Rules of handling sheet metal
      2. Importance of verification
      3. Methods of verification
      4. Hardness testing identification
    3. Special Machining Processes
      1. Drilling and reaming tooling
      2. Drilling and reaming of close tolerance hardware and fittings
      3. Rivet shaver
      4. Routing procedures
      5. Spot facing application and tooling
      6. Spot facing procedures
      7. Counter boring application and tooling
      8. Counter boring procedures
      9. Torque applications
      10. Jig and fixture building
    4. Protective Coatings
      1. Alodine treatment
      2. Anodizing
      3. Primers and applications
      4. Final coatings and application
    5. Hand Forming
      1. Tooling fabrication
      2. Forming flanges
      3. Forming concave curvatures
      4. Forming convex curvatures
    6. Repair Processes
      1. Dent repairs
      2. Web repairs
      3. Skin repairs
      4. Spar repair
      5. Rib repair


    Effective Term:
    Full Academic Year 2021/2022
  
  • AVM 151 - Aircraft Sheet Metal Repair IV

    4 Credits, 8 Contact Hours
    2 lecture periods 6 lab periods

    Continuation of AVM 150 . Includes locking fasteners, damage classifications, and structural repair processes.

    Prerequisite(s): AVM 150  
    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Describe the types, materials and sizing of special locking fasteners.
    2. Demonstrate the use of locking fasteners in structural repair procedures.
    3. Define and use damage classifications according to the Structural Repair Manual (SRM).
    4. Use the SRM and the Illustrated Parts Catalog (IPC) to determine repair and replacement requirements.
    5. Describe layout procedures and perform pressurized repair, flush skin and frame repair to heavy materials.

    Outline:
    1. Special Locking Fasteners
      1. Types, Materials and Sizing
      2. Installation Procedures for the following:
        1. Dzus
        2. Camlock
        3. Airlock
        4. Paneloc
        5. Zip-loc
        6. Milsou
        7. Calfac
    2. Damage Classifications
      1. Definitions
      2. Allowable damage
      3. Repairable damage
      4. Replacement of the part
      5. Damage beyond allowable limits
      6. Hole preparation and stop drilling of cracks
      7. Use of the SRM to identify type of damage
    3. Repair and Replacement Requirements
      1. Use of the SRM to determine repair procedures
      2. Use of the IPC to determine parts replacement and effectiveness
    4. Repair Processes
      1. Pressurized repairs
      2. Flush skin repair - heavy material
      3. Frame repair - heavy material
      4. External patch repair


    Effective Term:
    Full Academic Year 2021/2022
  
  • AVM 165 - Aircraft Hardware and Fasteners

    3 Credits, 3 Contact Hours
    3 lecture periods 0 lab periods

    Aircraft structural repair hardware and fasteners. Includes specifications and standards, types, control linkages, tubing, hose and packings.

    Button linking to AZ Transfer course equivalency guide  

    Course Learning Outcomes
    1. Describe characteristics and properties of aircraft metals.
    2. Identify material types through designation numbering.
    3. Describe and classify types of corrosion found in aircraft and determine the methods of removal and treatment.
    4. Describe destruction and non-destruction testing methods and applications used in aircraft repair.
    5. Use characteristics and properties of ferrous and non-ferrous metals in aircraft.

    Outline:
    1. Aircraft Structural Materials
      1. Usage
      2. Mechanical properties
      3. Chemical properties
      4. Electrical properties
      5. Thermal properties
      6.       Stress versus strain
      7. Fatigue
    2. Non-ferrous Metals
      1. Use in aircraft
      2. Characteristics and properties
      3. Forming and mechanical working
      4. Alteration of mechanical properties through thermal treatments
      5. Corrosion
      6.       Heat treatment procedures
    3. Ferrous Metals
      1. Use in aircraft
      2. Characteristics and properties
      3. Forming
      4. Thermal treatments
      5. Corrosion
      6.       Heat Treatment Procedures
    4. Surface Treatments for Ferrous and Non-ferrous Metals
      1. Aluminum cladding
      2. Case hardening of ferrous material
    5. Alloying of Ferrous and Non-ferrous Metals
      1. Reasons for alloying
      2. Alloying elements and designations for aluminum
      3. Alloying elements and designations for steel
      4. Alloying elements and designations for magnesium
      5. Alloying elements and designations for titanium
      6.       Special alloys
    6. Corrosion in Aircraft Structural Materials
      1. Understanding corrosion and its causes
      2. Classifying corrosion
      3. Detection methods
      4. Removal
      5. Treatment and prevention
    7. Destruction Testing of Structural Materials
      1. Impact
      2. Tensile
      3. Hardness
      4. Chemical
    8. Non-Destructive Testing of Structural Material
      1. Theory
      2. Magnetic particle
      3. Penetrant
      4. Eddy current
      5. Ultra-sonic
      6.       X-Ray


    Effective Term:
    Spring 2010
  
  • AVM 202 - Aviation Safety

    2.5 Credits, 5 Contact Hours
    1.25 lecture periods 3.75 lab periods

    Introduction to aviation safety procedures. Includes personal safety issues, human factors, accident avoidance, facility fire protection, hazardous materials safety and handling procedures, ramp procedures for movement, and securing and servicing of aircraft and ramp support equipment. Also includes forklift and scissors lift training.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of personal, shop, and ramp safety
    2. Demonstrate proficient knowledge of potential aircraft hazards
    3. Demonstrate proficient knowledge of aircraft handling
    4. Demonstrate proficient knowledge of ground equipment handling

    Outline:
    1. Personal Safety
      1. Define terms related to safety
      2. Discuss general safety practices and precautions
      3. Discuss personal safety practices and equipment
      4. List steps to be followed in case of an accident
    2. Human Factors
      1. Physiology
      2. Personal habits
      3. Attitudes towards the workplace
      4. Accident avoidance
    3. Shop and Hangar Safety
      1. Standard safety procedures
      2. Emergency evacuation procedures
      3. Hazards of shop floor equipment
      4. Hazard tags and markings
      5. Electrical and chemical shutdown procedures
    4. Ramp Safety
      1. Standard safety procedures
      2. Emergency evacuation procedures
      3. Hazard zone and ramp markings
      4. Precautions around aircraft
      5. Pneumatic, electrical and fuel shutdown procedures
    5. Hazardous Aircraft
      1. Obstructions
      2. Grounding
      3. Fire
      4. Radiation
      5. Turbine engine hazards
      6. Piston and propeller hazards
      7. Movement of aircraft
      8. Securing
      9.       System hazards
    6. Hazardous Material Handling
      1. Safety equipment
      2. Storage
      3. Disposal
      4. Material Safety Data Safety Sheet (MSDA) data
      5. Handling precautions
    7. Fire Safety
      1. Types of fires
      2. Proper extinguishing equipment
      3. Use of extinguishers
      4. Protective equipment
    8. Confined Space
      1. Ventilation
      2. Precautions
    9. Aircraft Ground Handling
      1. Terms
      2. Chalking and tie down
      3. Ground support equipment
      4. Jacking and hosting
      5. Cleaning
      6. Servicing
      7. Fuel contamination hazards
      8. Fueling
      9. De fueling
      10. Selection of proper fuel grades
      11. Landing gear and control surface locks
    10. Aircraft Movement and Ground Operations
      1. Terms
      2. Standard hand signals
      3. Start-up procedures
        1. Prop
        2. Turbine
      4. Air Traffic Control (ATC) procedures
      5. Movement on airports
      6. Towing of aircraft
    11. Forklift and Scissors Lift Operation
      1. Terms
      2. Equipment capabilities
      3. Safety precautions
      4. Safety procedures
      5. Operation
      6. Securing techniques


    Effective Term:
    Full Academic Year 2021/2022
  
  • AVM 203 - Aircraft Sheet Metal Repair V

    4 Credits, 8 Contact Hours
    2 lecture periods 6 lab periods

    Continuation AVM 151 . Includes jigging, shoring and alignment, corrosion and heat treatment and structural repair processes.

    Prerequisite(s): AVM 151  
    Button linking to AZ Transfer course equivalency guide   

    Course Learning Outcomes
    1. Describe the procedures for jigging, shoring, leveling and aligning aircraft.
    2. Describe safety and emergency safety procedures in the handling and use of corrosion treatment chemicals.
    3. Demonstrate corrosion control of ferrous and non-ferrous aircraft structures.
    4. Demonstrate corrosion control of plated aircraft parts.
    5. Describe the principles and processes of heat treatment for aluminum structures and carton steel alloys.
    6. Demonstrate the heat treatment of aluminum alloys.
    7. Demonstrate layout and repair of aircraft control surfaces.
    8. Demonstrate balancing of flight control surfaces.
    9. Demonstrate use of reader and printer.

    Outline:
    1. Jigging, Shoring, and Alignment
      1. Requirement
      2. Shoring techniques
      3. Jigging requirements
      4. Alignment determination techniques
      5. Jacking and leveling
    2. Corrosion Treatment
      1. Safety procedures
      2. Emergency safety procedures
      3. Corrosion damage and rework limits
      4. Corrosion removal techniques
      5. Identification of metals
      6. Corrosion removal for aluminum alloys
      7. Corrosion removal for magnesium
      8. Corrosion removal for carbon steel
      9. Corrosion removal for titanium alloys
      10. Corrosion removal for chromium and nickel plated parts
      11. Corrosion removal for cadmium plated parts
    3. Heat Treatment
      1. Basic principles of heat treatment for ferrous and non-ferrous metals
      2. Equipment
      3. Temperatures
      4. Soaking
      5. Quenching
      6. Natural and artificial aging
      7. Temper designations
      8. Hardness
      9. Strength specifications
      10. Corrosion problems
      11. Cracking
      12. Quality assurance techniques
      13. Heat treatment of aluminum alloys
    4. Structural Repair Processes
      1. Layout and perform control surface repairs
      2. Balance control surfaces
      3. Stringer repairs
      4. Frame repairs


    Effective Term:
    Full Academic Year 2021/2022
  
  • AVM 204 - Aircraft Sheet metal Repair VI

    4 Credits, 8 Contact Hours
    2 lecture periods 6 lab periods

    Continuation of AVM 203 . Includes sealants and sealant applications, heat treatment, plastics and plastic repairs and structural repair processes.

    Prerequisite(s): AVM 203  
    Button linking to AZ Transfer course equivalency guide    

    Course Learning Outcomes
    1. Describe aircraft sealant materials, use and safety.
    2. Demonstrate sealant application.
    3. Demonstrate heat treatment and tempering of alloy steels.
    4. Demonstrate layout and repair of formed sections.
    5. Demonstrate layout and repair of extruded sections.

    Outline:
    1. Sealants - General
      1. Basic concept and definitions
      2. Sealing materials
      3. Types of sealant applications
      4. Sealing equipment
      5. Storage of sealant
      6. Preparation of sealants
      7. General safety precautions
      8. Inspection requirements
    2. Sealant Application
      1. Sealant application technique
      2. Sealing fuel tanks
      3. Sealing structural repairs
      4. Sealing pressure vessels
      5. Specialized curing techniques
    3. Heat Treatment
      1. Basic heat treatment of alloy steels
      2. Tempering for specific properties
    4. Structural Repair Processes
      1. Formed section repair
      2. Extruded section repair


    Effective Term:
    Full Academic Year 2021/2022
  
  • AVM 205 - Motion Dynamics

    2.5 Credits, 5 Contact Hours
    1.25 lecture periods 3.75 lab periods

    Principles of hydraulic power. Includes basic physics, basic mechanics, heat and fluid dynamics, fabrication and installation of fluid lines and fittings, laws of motion, basic aerodynamics, and aircraft nomenclature.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of basic physics and mechanics
    2. Demonstrate proficient knowledge of hydraulic theory
    3. Demonstrate proficient knowledge of aerodynamic theory
    4. Demonstrate proficient knowledge of common aircraft nomenclature

    Outline:
    1. Basic Physics
      1. Terms
      2. Principles of physics
      3. States of matter
      4. Laws of motion
      5. Potential energy
      6. Kinetic energy
    2. Simple Mechanics
      1. Stresses
      2. Leverage
      3. Stored energy
      4. Ratios
    3. Sound, Heat, and Fluid Dynamics
      1. Heat and energy
      2. Heat transfer
      3. Sound transmission
      4. Temperature monitoring
      5. Pressure types
      6. Pressure monitoring
    4. Hydraulic Lines and Fittings
      1. Rigid lines
      2. Flexible lines
      3. Standard fittings
      4. Military Standard (MS), Army, Navy Standard (AN), and Advisory Circular (AC) standards
      5. Tooling
      6. Fabrication methods
    5. Basic Aerodynamics
      1. Forces of flight
      2. Physics of aerodynamics
      3. Airfoils
      4. Atmospheric conditions
      5. Center of pressure
      6. Supersonic flight
      7. Axis of an aircraft
      8. Stalls
      9. Control around the axis
      10. Speed, pitch, roll control
    6. Aircraft nomenclature
      1. Primary structure
      2. Primary flight controls
      3. Secondary flight controls
      4. Cockpit controls
      5. Cowlings and nacelles
      6. Skins and fairings
      7. Landing gear
      8. Panels and doors
      9. Wing types
      10. Empennage types
      11. Bundy layer control


    Effective Term:
    Full Academic Year 2021/2022
  
  • AVM 206 - Materials and Processes

    3 Credits, 6 Contact Hours
    1.5 lecture periods 4.5 lab periods

    Introduction to non-metallic and metallic structural materials for comparison of their structural properties. Includes structural materials, metal processing, heat treatment, heat treatment of alloys or limited use metals, non-destructive testing/inspection, corrosion, corrosion types and factors, corrosion-prone areas, corrosion control: steel, aluminum, and limited use metals, processes and materials for corrosion control, aircraft cleaning, and aircraft cleaning agents.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Recall proficient knowledge of aircraft metal types and corrosion control processes
    2. Recall proficient knowledge in non-destructive testing and inspection
    3. Demonstrate proficiency in the hardware identification and common materials and processes

    Outline:
    1. Aircraft Metals
      1. Property of Metals
      2. Ferrous Aircraft Metals
      3. Non-Ferrous Aircraft Metals
      4. Substitution of Aircraft Metals
      5. Metalworking Process
      6. Heat Treatment of Ferrous Metals
      7. Heat Treatment of Nonferrous Metals
      8. Straightening After Solution Heat Treatment
      9. Precipitation Heat Treating
      10. Annealing of Aluminum Alloys
      11. Heat Treatment of Aluminum Alloy Rivets
      12. Heat Treatment of Magnesium Alloys
      13. Heat Treatment of Titanium
      14. Hardness Testing
      15. Forging
      16. Casting
      17. Extruding
      18. Coldworking/Hardening  
    2. Nonmetallic Aircraft Materials
      1. Wood
      2. Plastics
      3. Transparent Plastics
      4. Composite Materials
      5. Rubber
    3. Seals
      1. Packings
      2. Gaskets
      3. Wipers
      4. Sealing Compounds
    4. Aircraft Hardware
      1. Identification
      2. Threaded Fasteners 
      3. Aircraft Bolts
      4. Aircraft Nuts
      5. Aircraft Washers
      6. Installation of Nuts, Washers, and Bolts
      7. Safetying of Bolts and Nuts
      8. Fastener Torque
      9. Aircraft Rivets
      10. Mechanically Expanded Rivets
      11. Special Shear and Bearing Load Fasteners
      12. Screws
      13. Riveted and Rivetless Nut Plates
      14. Hole Repair and Hole Repair Hardware
      15. Safetying Methods
      16. Safety Wiring
      17. General Safety Wiring Rules
    5. Cleaning and Corrosion
      1. Factors Affecting Corrosion
      2. Types of Corrosion
      3. Forms of Corrosion
      4. Common Corrosive Agents
    6. Common Corrosive Agents
    7. Inspection
    8. Corrosion Prone Areas
      1. Exhaust Trail Areas
      2. Battery Compartments and Battery Vent Openings
      3. Bilge Areas
      4. Lavatories, Buffets, and Galleys
      5. Wheel Well and Landing Gear
      6. Water Entrapment Areas
      7. Engine Frontal Areas and Cooling Air Vents
      8. Wing Flap and Spoiler Recesses
      9. External Skin Areas
      10. Electronic and Electrical Compartments
      11. Miscellaneous Trouble Areas
    9. Corrosion Removal
      1. Surface Cleaning and Paint Removal
      2. Fairing or Blending Reworked Areas
    10. Corrosion of Ferrous Metals
      1. Mechanical Removal of Iron Rust
      2. Chemical Removal of Rust
      3. Chemical Surface Treatment of Steel
      4. Removal of Corrosion from Highly Stressed Steel Parts
    11. Corrosion of Aluminum and Aluminum Alloys
      1. Treatment of Unpainted Aluminum Surface
      2. Treatment of Anodized Surfaces
      3. Treatment of Intergranular Corrosion in Heat-Treated Aluminum Alloy Surfaces
    12. Corrosion of Magnesium Alloys
      1. Treatment of Wrought Magnesium Sheet and Forgings
      2. Treatment of Installed Magnesium Castings
    13. Treatment of Titanium and Titanium Alloys
    14. Protection of Dissimilar Metal Contacts
      1. Contacts Not Involving Magnesium
      2. Contacts Involving Magnesium
    15. Corrosion Limits
    16. Processes and Materials Used in Corrosion Control
      1. Metal Finishing
      2. Surface Preparation
    17. Chemical Treatments
      1. Anodizing
      2. Alodizing
      3. Chemical Surface Treatment and Inhibitors
      4. Chromic Acid Inhibitor
      5. Sodium Dichromate Solution
      6. Chemical Surface Treatments
    18. Protective Paint Finishes
    19. Aircraft Cleaning
      1. Exterior Cleaning
      2. Interior Cleaning
    20. Powerplant Cleaning
    21. Solvent Cleaners
      1. Dry Cleaning Solvent
      2. Aliphatic and Aromatic Naphtha
      3. Safety Solvent
      4. Methyl Ethyl Ketone (MEK)
      5. Kerosene
      6. Cleaning Compound for Oxygen Systems
    22. Emulsion Cleaners
      1. Water Emulsion Cleaner
      2. Solvent Emulsion Cleaners One type of solvent emulsion cleaner
    23. Soaps and Detergent Cleaners
      1. Cleaning Compound, Aircraft Surfaces
      2. Nonionic Detergent Cleaners
    24. Mechanical Cleaning Materials
      1. Mild Abrasive Materials
      2. Abrasive Papers
    25. Chemical Cleaners
      1. Phosphoric-citric Acid
      2. Baking Soda
    26. Nondestructive Inspection/Testing
      1. Training, Qualification, and Certification
      2. Advantages and Disadvantages of NDI Methods
      3. General Techniques
      4. Visual Inspection
      5. Eddy Current Inspection
      6. Principles of Operations
      7. Eddy Current Instruments
      8. Ultrasonic Inspection
      9. Ultrasonic Instruments
      10. Reference Standards
    27. Inspection of Bonded Structures
      1. Types of Defects
      2. Acoustic Emission Inspection
      3. Magnetic Particle Inspection
      4. Magnaglo Inspection
      5. Radiographic Inspections
    28. Inspection of Composites
      1. Tap Testing
      2. Electrical Conductivity
      3. Thermography
    29. Inspection of Welds


    Effective Term:
    Fall 2023
  
  • AVM 207 - Weight and Balance

    1.5 Credits, 3 Contact Hours
    .75 lecture periods 2.25 lab periods

    Preparation of aircraft for weight and balance. Includes service and maintenance manuals, type certificate data sheets, standard weight and balance practices, weighing an aircraft, calculating center of gravity, and correction of out of balance conditions. Also includes addition and subtraction of equipment, equipment lists, flight manual updates, control surface balancing, identification and selection of standard hardware, installation and assembly of specialty hardware, and use of precision measuring equipment.

    Prerequisite(s): GTM 105V  
    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of aircraft weight and balance theory and terms
    2. Demonstrate proficient knowledge of aircraft weight and balance procedures and equipment
    3. Demonstrate proficiency performing aircraft center of gravity calculations
    4. Demonstrate proficiency performing adverse loading calculations

    Outline:
    1. Theory and Terms
      1. Weight and balance (W&B) theory
        1. Need for weighting
        2. Flight operational concerns
        3. Controllability
        4. Safety of flight
        5. Principles of W&B
      2. W&B terms
        1. Datum
        2. Arm
        3. Moment
        4. Center of gravity (CG)
        5. Maximum weight
        6. Empty weight (EW)
        7. EWCG
        8. Useful load
        9. Minimum fuel
        10. Tare weight
    2. W&B Procedures and Equipment
      1. Procedures for weighing
        1. General concepts
        2. W&B data
        3. Manufacturer-furnished information
      2. W&B equipment
        1. Scales
        2. Spirit level
        3. Plumb bob
        4. Hydrometer
      3. Preparing an aircraft for weighing
        1. Fuel system
        2. Oil system
        3. Miscellaneous fluids
        4. Flight controls
        5. Other considerations
        6. Weighing point
      4. Jacking and leveling the aircraft
        1. Precautions
        2. Longitudinal adjustments
        3. Lateral adjustments
        4. Safety considerations
    3. Calculcating CG
      1. CG range
        1. Location
        2. CG limit
        3. EWCG
        4. Operating CG
      2. Standard weights used for W&B
        1. Fuel
        2. Oil
        3. Water
        4. Crew
      3. CG formulas
        1. EWCG
        2. Datum forward of CG
        3. Datum aft of main wheels
        4. Location of datum
      4. Loading an aircraft for flight
        1. Responsibility
        2. TCDS data
        3. Loaded weight
        4. Maximum take-off weight
    4. Adverse-loaded CG Checks
      1. Forward and Aft check
      2. Equipment change and aircraft alteration
        1. Calculations
        2. Use of Ballast
          1. Temporary ballast
          2. Permanent ballast
          3. Ballast calculations/formulas
      3. Loading graphs and CG envelopes
        1. Manufacture use
        2. Pilot use
      4. Helicopter W&B
        1. General concepts
        2. Helicopter weighing
        3. Helicopter leveling
      5. Weight-shift control aircraft and powered parachutes
        1. Weight-shift aircraft
        2. Powered parachutes
      6. W&B for large airplanes
        1. Built-in electronic weighing
        2. Mean aerodynamic chord (MAC)
        3. Leading edge MAC
        4. CG range
        5. Percent of MAC
      7. W&B records
        1. FAA requirements
        2. W&B report


    Effective Term:
    Full Academic Year 2021/22
  
  • AVM 208 - Basic Electricity

    3.5 Credits, 8 Contact Hours
    1.25 lecture periods 6.75 lab periods

    Introduction to basic aircraft electricity. Includes the study of matter, electron theory, current/electron flow, direct and alternating current, Ohm’s Law, Kirchoff’s laws, circuit elements, use of testing equipment, and electrical calculation and measurements. Also includes interpretation of schematics and other wiring diagrams, battery theory and maintenance, aircraft electrical systems, and introduction to communication and navigation radio systems.

    Prerequisite(s): GTM 105V  
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    Course Learning Outcomes
    1. Demonstrate proficient knowledge of DC theory and circuits
    2. Demonstrate proficient knowledge of AC theory
    3. Demonstrate proficient knowledge of voltage generation and control elements
    4. Demonstrate proficient knowledge of various aircraft electrical systems

    Outline:
    1. Basic Electron and Electrical Theory 
      1. Types of current and voltage
      2. Units of electrical measurement
      3. Powers of ten and scientific notation
      4. Static electricity
      5. Electric and magnetic fields (EMF)
      6. Ohm’s Law
      7. Resistance, conductors, and insulators
      8. Sources of electric energy
    2. Direct Current (DC) and Alternating Current (AC)
      1. DC (series parallel and grid circuits)
      2. Ohm’s Law
      3. AC
    3. Use of Test Equipment to Measure Continuity, Voltage, Current, Resistance, Inductance and Capacitance
      1. Circuit elements 
      2. Capacitors, resistors, and inductors
      3. Switches
      4. Protective devices
      5. Volt-Ohm multimeters
      6. DC power supplies
      7. High potential testers and harness testers
      8. LCR meter for inductance and capacitance
      9. Signal generators
    4. Generators, Motors, Ignition Systems, and Magnetos 
      1. Magnetic theory
      2. Inductance
    5. Aircraft Batteries 
      1. Lead acid batteries
      2. Nickel cadmium batteries
      3. Battery maintenance and safety
    6. Wiring 
      1. Wire type and size
      2. Wire installation
      3. Troubleshooting
    7. Aircraft Lighting Systems
      1. Exterior lighting
      2. Landing lights
      3. Taxi lights
    8. Federal Aviation Administration (FAA) and Federal Aviation Regulations (FARs) 
      1. Weight and balance
      2. Problem solving
      3. Aircraft modifications
    9. Communication and Navigation Systems
      1. Audio systems, microphones, speakers and headsets
      2. Communication systems
      3. Navigation systems


    Effective Term:
    Full Academic Year 2021/22
  
  • AVM 209 - Intermediate Electricity

    3.5 Credits, 8 Contact Hours
    1.25 lecture periods 6.75 lab periods

    Intermediate electricity includes the study of aircraft airframe electrical components as well as airframe and powerplant electrical systems. Includes electric motors, generators and generator controls, alternators, inventers and related controls, power distribution systems, design and maintenance of aircraft electrical systems, digital electronics, analog electronics, communication and navigation systems, communications, weather warning systems, and electric instruments and autoflight systems.

    Prerequisite(s): AVM 208  
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    Course Learning Outcomes
    1. Demonstrate proficient knowledge of motors and generators
    2. Demonstrate proficient knowledge of alternators and inverters
    3. Demonstrate proficient knowledge of power distribution systems
    4. Demonstrate proficient knowledge of instrumentation systems

    Outline:
    1. Electric Motors
      1. Motor theory
      2. Motor construction
      3. AC motors
      4. Inspection and maintenance
    2. Generators and Generator Controls
      1. Generator theory
      2. Direct Current (DC) generator construction
      3. Starter-Generators
      4. Generator control
      5. Generator inspection, service and repair
      6. Alternating Current (AC) generators
      7. Voltage regulators
      8. Inverters,
      9. Variable speed, constant frequency power systems
    3. Alternators, Inverters and Related Controls          
      1. AC generators
      2. Voltage regulators
      3. Inverters and static inverters
      4. Variable-speed constant-frequency power systems
    4. Power Distribution Systems
      1. Requirements for power distribution systems
      2. Main power distribution systems
      3. Power distribution in composite aircraft
      4. Large aircraft power distribution
    5. Design and Maintenance of Aircraft Electrical Systems  
      1. Requirements for electrical systems
      2. Aircraft lights
      3. Large aircraft electrical systems
      4. Maintenance and troubleshooting of electrical systems
    6. Digital Electronics           
      1. Logic gates
      2. Integrated circuits
      3. Large scale and very large scale integrated circuits
      4. Microprocessors
      5. Application specific integrated circuits
      6. Digital aircraft systems
      7. Troubleshooting digital circuits and systems
    7. Analog Electronics
      1. DC amplifiers
      2. Radio frequency (RF) amplifiers
      3. Audio amplifiers
      4. Power supplies
      5. Control circuits
    8. Communication and Navigation Systems 
      1. Communications
      2. Navigation
      3. Long range navigation
      4. Installation of avionics equipment
      5. Antennas
    9. Weather Warning Systems
      1. Radar
      2. Digital airborne weather radar
      3. Weather mapping systems
    10. Electric Instruments and Autoflight Systems
      1. Revolutions per minute (RPM) measuring instruments
      2. Temperature indicators
      3. Synchro systems
      4. Fuel quantity indicators
      5. Electromechanical flight instruments
      6. Electronic flight systems
      7. Automatic flight control systems
      8. Autoflight and landing systems
      9. Flight management systems
      10. Strap-down gyro system


    Effective Term:
    Full Academic Year 2021/22
  
  • AVM 211 - Alternate Structures

    3.5 Credits, 8 Contact Hours
    1.25 lecture periods 6.75 lab periods

    Aircraft structural fabrication using wood, tube steel and fabric processes and techniques. Includes structural types, wood and welded tube steel fabrication methods, welding of typical metals used in aircraft construction, fabric covering processes, inspection and maintenance typical repair procedures, and aircraft finishings.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of wooden aircraft structures
    2. Demonstrate proficient knowledge of welded aircraft structures
    3. Demonstrate proficient knowledge of fabric aircraft coverings
    4. Demonstrate proficient knowledge of aircraft finishes

    Outline:
    1. Wood Structures
      1. Terms
      2. Fuselage
      3. Wing
      4. Typical applications
    2. Wood
      1. Types
      2. Defects
      3. Decay
    3. Fastening
      1. Adhesives
      2. Metal fasteners
    4. Wood Machining
      1. Cutting
      2. Sanding
      3. Preparation for joining
      4. Installation of fasteners
    5. Wood Repairs
      1. Identification of damage
      2. Inspection
      3. Replacement
      4. Scarf joints
      5. Splicing
      6. Patches
    6. Finishing Wood Structure
      1. Precautions
      2. Surface
      3. End grain
      4. Sealing holes
    7. Tubular Structures
      1. Terms
      2. Fuselage
      3. Landing gear
      4. Typical applications
    8. Metals
      1. Types and alloys
      2. Harness indicators
    9. Machining
      1. Cutting
      2. Drilling
      3. Sanding/grinding
      4. Forming
      5. Fabrication of joints
    10. Welding, Brazing, and Soldering
      1. Types of welding
      2. Brazing
      3. Soldering
      4. Equipment
      5. Gas welding
      6. F. Shielded metal arc (stick)
      7. Gas metal arc (MIA)
      8. Gas tungsten arc (TIA)
    11. Welded Repairs
      1. Joints
      2. Fit and preparation
      3. Selection of materials
      4. Precautions and safety
      5. Non-repairable structures
    12. Fabric Materials
      1. Terms
      2. Type of fabric
      3. Applications
    13. Typical Installation
      1. Fastening materials
      2. Attachment to structure
      3. Shrinking
      4. Reinforcing
      5. Lacing
      6. Sewing
      7. Openings
    14. Coatings
      1. Dopes
      2. Sealers
      3. Sanding
      4. Defects
    15. Repairs
      1. Precautions
      2. Sewn patch
      3. Doped on patch
      4. Refinishes
    16. Finishes and Paints
      1. Paint types
      2. Thinning
      3. Catalyzing
      4. Cleanup
      5. Environmental
      6. Equipment
    17. Finish Trims Striping
      1. Numbers and lettering
      2. Touchup
      3. Masking
      4. Decals
    18. Defects
      1. Orange peel
      2. Sags and runs
      3. Fisheye
      4. Scratches
      5. Scuffing
    19. Repairs
      1. Inspection
      2. Sanding
      3. Matching
      4. Blending
      5. Polishing


    Effective Term:
    Full Academic Year 2021/22
  
  • AVM 218 - Airframe Rigging and Landing Gear Systems

    2.5 Credits, 5 Contact Hours
    1.25 lecture periods 3.75 lab periods

    Identification, assembly, alignment, balancing and rigging of aircraft rigging and landing gear systems. Includes aircraft nomenclature, characteristics of flight, flight control system, airframe assembly, rigging, structural alignments, control surface balancing, landing gear, shock struts, landing gear retraction, wheel alignment and steering, brake system servicing, brake assemblies, wheels, tires, warning systems, and anti-skid system.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of aircraft rigging and balancing procedures
    2. Demonstrate proficient knowledge of aircraft landing gear systems
    3. Demonstrate proficient knowledge of aircraft position and warning systems
    4. Demonstrate proficient knowledge of aircraft inspection and servicing procedures

    Outline:
    1. Aircraft Nomenclature
      1. Fuselage types
      2. Wing types
      3. Empennage types
      4. Flight controls
        1. Primary
        2. Secondary
      5. Landing gear types
    2. Characteristics of Flight
      1. Flight about the axis
      2. Lift vs. drag
      3. Stability
        1. static
        2. Dynamic
        3. Longitudinal
        4. Directional
        5. Lateral
      4. Thrusts
      5. Torque
    3. Flight Control System
      1. Flight controls
        1. Primary
        2. Secondary
      2. Mechanical linkage
      3. Hydraulic/mechanical
      4. Artificial feedback
      5. Control locks (external)
    4. Airframe Assembly
      1. Technical data
      2. Special tooling
      3. Jigs and fixtures
    5. Rigging
      1. Positioning
      2. Surface travel
      3. Cable tensioning
      4. Rig pin and locks
      5. Fixtures and templates
    6. Structural Alignments
      1. Symmetry checks
      2. Alignment
      3. Dihedral
      4. Incidence
      5. Instruments (measurement)
    7. Control Surface Balancing
      1. Principles
      2. Rebalancing
      3. Static balance
      4. Dynamic balance
      5. Tools and fixtures
    8. Landing Gear, and Shock Struts
      1. Nomenclature
      2. Principles of operation
      3. Servicing and maintenance
    9. Landing Gear Retraction
      1. Support structure
      2. Nomenclature
      3. Electrical actuation
      4. Hydraulic actuation
      5. Manual actuation
      6. Emergency extension
      7. Positions indicating
      8. Rigging/adjustment
      9. Maintenance
      10. Inspection
    10. Wheel alignment/steering
      1. Torque links
      2. Centering cams
      3. Hose wheel steering
      4. Shimmy dampers
    11. Brake system servicing
      1. Maintenance
      2. Servicing
      3. Inspection
    12. Brake assemblies
      1. Single disc
      2. Multiple disc
      3. Segmented rotor
      4. Expander tube
    13. Brake system servicing
      1. Maintenance
      2. Servicing
      3. Inspection
    14. Wheels
      1. Split
      2. Flange
        1. Fixed
        2. Removable
      3. Bearings
      4. Axle
    15. Tires
      1. Construction
      2. Nomenclature
      3. Inflation issues
      4. Inspection
    16. Warning systems
      1. Gear warning systems
        1. Flap
        2. Throttle
      2. Stall warning
      3. Position indication
      4. Maintenance
      5. Inspection
    17. Anti-skid system
      1. System principles
      2. Airspeed vs. wheel speed
      3. Components
      4. Protection systems


    Effective Term:
    Full Academic Year 2021/2022
  
  • AVM 219 - Airframe Inspections

    2.5 Credits, 5 Contact Hours
    1.25 lecture periods 3.75 lab periods

    Conformity inspections of airframes. Includes inspections of incoming spare parts and stock items, airframe and equipment conformity inspections, airframe and systems airworthiness and conformity inspections, conformity inspections of installed equipment, annual and 100-hour inspections of small aircraft, including research of all pertinent inspection documents, service or maintenance manuals, type certificate data sheets, airworthiness directives, service bulletins and additional instructions for continued airworthiness, inspection procedures for large aircraft work orders, non-routine job cards used by local aviation maintenance companies.

    Prerequisite(s): AVM 114  
    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of aircraft inspection requirements
    2. Demonstrate proficient knowledge of aircraft documents
    3. Demonstrate proficient knowledge of repair station operations
    4. Demonstrate proficient knowledge of proper maintenance documentation

    Outline:
    1. Safety
      1. Owner and operator responsibility
      2. Mechanic responsibility
      3. Inspector responsibility
      4. Minimum requirements
    2. Costs
      1. Aircraft ownership
      2. Operational
      3. Maintenance
      4. Insurance
    3. Airworthiness
      1. Definition
      2. Documents
      3. Maintainability
      4. Changes
    4. Unapproved Parts
      1. Definition
      2. Identification and labeling
      3. Alterations
      4. Inspection procedures
      5. Reporting
    5. Annual and 100 hour Inspections
      1. Preparation
      2. Documents for review
      3. Maintenance and service manual
      4. Using the check list
      5. Inspection requirements
      6. Service and maintenance
      7. Performing inspections
    6. Document Usage
      1. Use of maintenance publications
      2. Airworthiness directives, procedures
      3. Type certificate application
      4. Service bulletin application
      5. Instructions for continued airworthiness
      6. Equipment lists and minimums
      7. Aircraft log and maintenance records
    7. Progressive Inspections
      1. Applicability
      2. Breakdown of tasks
      3. Scheduling of maintenance and inspections
      4. Documentation
      5. Use of manufacturer data
      6. Equipment requirements
      7. Performing inspections
    8. Repair Station Requirements
      1. Certification
      2. Ratings
      3. Pertinent regulations
      4. Set-up and equipment
      5. Training
      6. Staffing
      7. Equipment
      8. Operating
    9. Documentation
      1. Inspection and maintenance sign offs
      2. Work orders
      3. Routine and non-routine
      4. Job cards


    Effective Term:
    Fall 2019
  
  • AVM 223 - Hydraulic and Pneumatic Power

    2.5 Credits, 5 Contact Hours
    1.25 lecture periods 3.75 lab periods

    Hydraulic and pneumatic system components. Includes system operating principles, fluids, pressures, hydraulic powered flight controls, landing gear, braking and accessory power systems, pneumatically powered or assisted accessories, and system and component inspection servicing and repairs.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of aircraft hydraulic system components
    2. Demonstrate proficient knowledge of aircraft hydraulic system operation
    3. Demonstrate proficient knowledge of aircraft landing gear, flight control, and brake systems
    4. Demonstrate proficient knowledge of aircraft hydraulic system inspection, servicing, and repair

    Outline:
    1. Hydraulic Fluids
      1. Viscosity
      2. Stability
      3. Types
      4. Precautions
    2. System Principles
      1. Needs for power
      2. Moving of fluid
      3. Routing and selector valves
      4. Basic components
    3. Reservoirs Types
      1. Features
      2. Servicing and inspection
    4. Filters
      1. Types
      2. Features
      3. Servicing and inspection
    5. Fluid Pumps
      1. Hand pumps
      2. Constant delivery
      3. Variable delivery
      4. Types
      5. Features
      6. Servicing and inspection
    6. Pressure Regulation
      1. Relief valves
      2. Regulators
      3. Indicating equipment
      4. Adjustment and servicing
    7. Accumulators
      1. Types
      2. Features
      3. Servicing
    8. Check Values
      1. Types
      2. Features
      3. Installations
    9. Actuating Cylinders
      1. Types
      2. Principles of operation
      3. Inspection and servicing
      4. Maintenance
    10. Selector Valves
      1. Operating principles
      2. Types
      3. Applications
    11. Hydraulic Power Systems
      1. Light A/C brakes
      2. Heavy A/C brakes
      3. Flight controls
      4. Steering
      5. Accessories
    12. Pneumatic Power Supply
      1. Pumps and supply
      2. Storage
      3. Precautions
    13. Pneumatic Power Equipment
      1. Control valves
      2. Pressure adjustment
      3. Restrictors
      4. Filters
      5. Maintenance and inspection


    Effective Term:
    Full Academic Year 2021/2022
  
  • AVM 224 - Atmospheric Controls

    2.5 Credits, 5 Contact Hours
    1.25 lecture periods 3.75 lab periods

    Atmospheric controls and its elements that are of concern to flight includes control systems; types of operations and maintenance; physiological requirements for flight crews, passengers, and the human support systems. Also includes oxygen systems; cabin pressurization system and their operations; and safety and maintenance requirements.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of aircraft oxygen systems
    2. Demonstrate proficient knowledge of aircraft cabin heat and vapor cycle systems
    3. Demonstrate proficient knowledge of aircraft bleed air systems air cycle machines
    4. Demonstrate proficient knowledge of aircraft pressurization systems

    Outline:
    1. Atmosphere
      1. Composition of gasses
      2. Segments
      3. Pressure changes
      4. Temperature changes
      5. Heating and cooling of air masses
      6. Water vapor
    2. Oxygen Requirements
      1. Physiological needs
      2. Hypoxia
      3. Regulations
    3. Oxygen Storage
      1. Gaseous
      2. Liquid
      3. Solid
    4. Oxygen System Components
      1. Regulators
      2. Masks
      3. Supply lines
      4. Fittings
      5. Indicating
    5. Oxygen Systems Functions
      1. Continuous
      2. Demand
      3. Emergency
    6. Maintenance
      1. Handling of oxygen
      2. Installation and removal of components
      3. Servicing
      4. Inspection
      5. Hazards
    7. Heating Systems
      1. Exhaust gas heaters
      2. Cabin combustion heaters
      3. Electrical element
      4. Engine bleed air heating
    8. Ventilating Systems
      1. Air distribution
      2. Tempering air
      3. Air sources
      4. Indicating and sensors
    9. Air Conditioning (Cooling) Systems
      1. Vapor cycle principles
      2. Vapor cycle components
      3. Air cycle principles
      4. Air cycle components
    10. Pressurization
      1. Structural requirements
      2. Cabin pressure sources
      3. Cabin pressure control systems
      4. Pressurization system components
      5. Safety features
      6. Typical operations


    Effective Term:
    Fall 2019
  
  • AVM 225 - Fire, Ice, Rain, and Fuel Systems

    2.5 Credits, 5 Contact Hours
    1.25 lecture periods 3.75 lab periods

    Theory and application of fire, ice, rain and fuel systems. Includes fire detection terms, extinguishing and protection systems, smoke detection, fire warning, fire extinguishing system components used, how systems function, inspection testing and maintenance, ice and rain protection terms, formation and conditions for icing of aircraft, ice and rain detection, protection systems components, functions, inspection and maintenance, fuel system terms, safety system requirements, fuel tank types and construction, indicating, fueling, and defueling inspection and maintenance.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of aircraft fire detection and protection systems
    2. Demonstrate proficient knowledge of aircraft ice and rain protection systems
    3. Demonstrate proficient knowledge of aircraft fuel systems
    4. Demonstrate proficient knowledge of aircraft system maintenance practices

    Outline:
    1. Fire Protection Terms
      1. Fuels
      2. Oxidizers
      3. Combustion
      4. Reactivity
      5. Detection
      6. Protection
      7. Extinguishing
      8. Zones
      9. Fixed
      10. Portable
    2. Detection
      1. Overheat
      2. Rate of temp rise
      3. Flame detectors
      4. Radiation sensing
      5. Smoke
      6. Carbon monoxide
      7. Combustible mixture
      8. Fiber optic
      9. Observation of crew or passengers
    3. Detection System Requirements
      1. Accurate warnings
      2. Location
      3. Testing
      4. Environmental
      5. Weight
      6. Power
      7. Indicating
    4. Common Fire and Overheat Detection Devices
      1. Thermal switch
      2. Spot detector
      3. Thermocouple
      4. Continuous loop
      5. Continuous element
    5. Fire Protection
      1. Firewalls
      2. Heat shielding
      3. Protective sleeving
      4. Interior material treatments
    6. Smoke Detection
      1. Carbon monoxide
      2. Photo electric
      3. Visual
    7. Extinguishing Agents
      1. Halogenated hydrocarbons
      2. Inert cold gas
    8. Extinguishing Systems
      1. Hand held
      2. High rate of discharge
      3. Maintenance
      4. Troubleshooting
    9. Ice and Rain
      1. Conditions
      2. Effects
      3. Types and terms
    10. Detection Methods
      1. Visual
      2. Performance
      3. Optical
      4. Electronic
    11. Prevention
      1. Avoidance
      2. Heating surfaces
      3. Chemical
      4. Mechanical
    12. Pneumatic Deicing
      1. Operation
      2. Components
      3. Maintenance
    13. Thermal (Combustion Heater)
      1. Operation
      2. Components
      3. Maintenance
    14. Thermal (Bleed Air)
      1. Operation
      2. Components
      3. Maintenance
    15. Thermal (Electrical Element)
      1. Operation
      2. Instrument sensing protection
      3. Windshield icing/defrost
      4. Drain heating
      5. Maintenance
    16. Rain Removal Systems
      1. Forced air
      2. Wiper
      3. Chemical
      4. Maintenance
    17. Fuel Systems Safety
      1. Safety
      2. System types
      3. Fuel compatibility
    18. System Types
      1. Fuel storage
        1. Tank
        2. Bladder
        3. Integral
      2. Gravity feed
      3. Transfer feed
    19. Fuel Pumps
      1. Vane
      2. Rotary piston
      3. Hand pumps
    20. Fuel Filters and Strainers
      1. Types
      2. Servicing and replacements
      3. Lines and fittings
    21. Fuel Valves
      1. Selector
      2. Check values
      3. Sump and drain
    22. Fuel Management
      1. Multiple tank, selection
      2. Fueling
      3. Transfer
      4. Jettison
    23. VXXII.     Indicating
      1. Visual
      2. Placarding
      3. Resistance
      4. Capacitance
      5. Mechanical
    24. System Maintenance
      1. Securing
      2. Leakage
      3. Corrosion


    Effective Term:
    Full Academic Year 2021/2022
  
  • AVM 226 - Engine Electrical Systems

    3.5 Credits, 8 Contact Hours
    1.25 lecture periods 6.75 lab periods

    Inspection, repair, and modification of engine electrical systems. Includes magneto(s) (components, tooling, wiring, and drives), ignition switches, ignition harness, ignition booster system, spark plugs, engine ignition analyzers, turbine engine (ignition transformers and igniter plugs), engine electrical controls (switches, fuses and circuit breaker, circuits, wiring, installation, and engine bulkhead), and technical data manuals and catalogs.

    Prerequisite(s): AVM 208  
    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of reciprocating engine ignition systems
    2. Demonstrate proficient knowledge of turbine engine ignition systems
    3. Demonstrate proficient knowledge of engine electrical system wiring standards
    4. Demonstrate proficient knowledge of engine electrical system troubleshooting processes

    Outline:
    1. Magnetos (Components)
      1. Rotor
      2. Magnets
      3. Bearings
      4. Pole shoe
      5. Housings
      6. Timing gears
      7. Coils
      8. Breaker points
      9. Distributor
    2. Magnetos (Tooling)
      1. Basic tools for disassembly
      2. Point gapping tools
      3. E-gap equipment
      4. Fixtures
      5. Timing equipment
      6. Condenser testers
      7. Magneto test bench
      8. Ohm meter ops
    3. Magnetos (Wiring)
      1. High tension
      2. Low tension
      3. Flexible shielding
      4. Non-flexible shielding
      5. Ignition contacts
    4. Magnetos (Drives)
      1. Impulse
        1. Operation
        2. Lag
        3. Inspection
      2. Direct drive spline
      3. Accessory drive attachments
    5. Ignition Switches
      1. Purpose
      2. Types
      3. Operation
      4. Installations
    6. Ignition Harness
      1. Descriptions
      2. Types
      3. Operations
      4. Installations
      5. Troubleshooting
      6. Repairs
    7. Ignition Booster System
      1. Description of operation
      2. Booster coil
      3. Induction vibrator
      4. Troubleshooting
    8. Spark Plugs
      1. Description of operation
      2. Types and designations
      3. Reach
      4. Electrodes
      5. Servicing
    9. Engine Ignition analyzers
      1. Description of operations
      2. Equipment types
      3. Usage
    10. Turbine Engine (Ignition Transformers)
      1. Description of operations
      2. Types and designations
      3. Hazards
      4. Components
      5. Mounting
      6. Troubleshooting and repair
    11. Turbine Engine (Igniter Plugs)
      1. Description of operation
      2. Types/designations
      3. Hazards
      4. Components
      5. Igniter leads
      6. Troubleshooting, servicing and repair
    12. Engine electrical controls (switches)
      1. Types
      2. Applications
      3. Troubleshooting and repair
      4. Installations
    13. Engine electrical controls (fuses, circuit breakers)
      1. Types
      2. Applications
      3. Troubleshooting and repair
      4. Installations
    14. Engine Electrical Controls (Circuits)
      1. Type
      2. Power supplies
        1. 14 volt
        2. 28 volt
        3. 115 volt AC
      3. Applications
      4. Troubleshooting and repair
    15. Engine Electrical Controls (wiring)
      1. Types
      2. Applications
      3. Sizing
      4. Selection
      5. Installation
        1. Securing
        2. Protective methods
        3. Typical installations
    16. Engine Electrical Controls (Installation)
      1. Electrical terminals
      2. Splicing
      3. Bonding jumpers
      4. Identification of cables
    17. Engine Electrical Controls (Engine Bulkhead)
      1. Connector plugs
      2. Mating receptacles
      3. Quick disconnect
      4. Securing and safe tying
    18. Technical Data
      1. Service manuals (SM)
      2. Part catalogues
      3. Maintenance manuals (MM)
      4. Wiring diagram manuals (WDM)
      5. Overhaul manuals (OM)


    Effective Term:
    Full Academic Year 2021/22
  
  • AVM 227 - Engine Air Flow Systems

    2.5 Credits, 5 Contact Hours
    1.25 lecture periods 3.75 lab periods

    Fundamentals of engine air flow systems. Includes reciprocating engine induction systems, alternate induction air systems, induction systems maintenance, superchargers, turbochargers, turbo compound systems, reciprocating engine exhaust systems, exhaust subsystems, exhaust system maintenance, reciprocating engine cooling, turbine engine induction systems, turbine engine cooling, turbine engine exhaust systems, turbine engine exhaust systems maintenance, and turbine engine airflow subsystems.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of reciprocating engine induction systems
    2. Demonstrate proficient knowledge of reciprocating engine exhaust systems
    3. Demonstrate proficient knowledge of engine ice, rain, and cooling systems
    4. Demonstrate proficient knowledge of turbine engine airflow systems

    Outline:
    1. Reciprocating Engine Induction Systems
      1. Naturally aspirated
        1. Air scoop
        2. Air filters
        3. Ducting
        4. Manifolds
      2. Super charged
        1. Air scoop
        2. Filters
        3. Ducting
        4. Manifolds
    2. Alternate Induction Air Systems
      1. Air preheat
      2. Carburetor ice
      3. Induction air heat exchange
      4. Induction air icing
        1. Alternate air source
        2. Cabin heating
        3. Water separation
    3. Induction System Maintenance
      1. Inspections
      2. Repairs
      3. Servicing
    4. Superchargers
      1. Principles of operation
      2. Internally driven
      3. Externally driven
      4. Inspection and maintenance
    5. Turbochargers
      1. Principles of operation
      2. Components
      3. Intercoolers and heat exchanges
      4. Waste gate
      5. Controllers
      6. Fuel system requirements
      7. Lubrication
      8. Inspection and maintenance
    6. Turbo Compound Systems
      1. Principles of operation
      2. Components
      3. Applications
    7. Reciprocating Engine Exhausts Systems
      1. Principles of operation
      2. Materials
      3. Types
        1. Open systems
        2. Collector
      4. Effect on power production
    8. Exhaust Subsystems
      1. Ejectors
      2. Expansion joints
      3. Augmenters
      4. Heating source
      5. Mufflers
      6. Thermal anti ice
    9. Exhaust System Maintenance
      1. Hazards
        1. Crew and passengers
        2. Aircraft components
      2. Inspection
      3. Service and maintenance
      4. Repairs
    10. Reciprocating Engine Cooling
      1. System functions
      2. Principles of operation
      3. Cowlings
        1. Construction
        2. Installation and removal
      4. Baffling and seals
        1. Cylinder fin cooling
        2. Accessory cooling
        3. Exhaust component cooling
      5. Inspection and maintenance
    11. Turbine Engine Induction Systems
      1. Air inlets principles of operation
        1. Subsonic inlet ducts
        2. Supersonic inlet ducts
      2. Divergent type
      3. Convergent type
      4. Blow-in doors
    12. Turbine Engine Cooling
      1. Distribution of inlet air
      2. Fan and by-pass air
      3. Combustor air cooling
      4. Air mixers
    13. Turbine Engine Exhaust Systems
      1. Flow of gasses
      2. Collection of gasses
        1. Divergent passages
        2. Convergent ducts
        3. Inner cone
      3. Insulation of components
    14. Turbine Engine Exhaust Systems Maintenance
      1. Typical operational problems
      2. Inspection
      3. Service and maintenance
      4. Repair
    15. Turbine Engine Airflow Subsystems
      1. Cowl and glide vane anti-ice control
      2. Vortex destruction
      3. Thrust reverse
        1. Clamshell (external blocking)
        2. Cascade vane (internal blocking)


    Effective Term:
    Full Academic Year 2021/2022
  
  • AVM 228 - Aircraft Propellers

    2.5 Credits, 5 Contact Hours
    1.25 lecture periods 3.75 lab periods

    Basics of aircraft propellers. Includes propeller theory, nomenclature, types, construction, and installation and maintenance. Also includes constant speed systems, feathering systems, reversing systems, icing systems, synchronizing systems, and unducted fans.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of aircraft propeller theory
    2. Demonstrate proficient knowledge of aircraft propeller operation
    3. Demonstrate proficient knowledge of aircraft propeller maintenance
    4. Demonstrate proficient knowledge of aircraft propeller systems

    Outline:
    1. Propeller Theory
      1. Production of thrust
      2. Forces acting on propellers
        1. Centrifugal
        2. Torque bending force
        3. Thrust bending force
        4. Aerodynamic twisting force
        5. Centrifugal twisting force
    2. Propeller Nomenclature
      1. Leading edge
      2. Trailing edge
      3. Tip
      4. Shank
      5. Blade face
      6. Blade back
      7. Chord line
      8. Blade angle
      9. Axis of rotation
      10. Blade pitch and distribution
    3. Types of Propellers
      1. Fixed pitch
      2. Ground adjustable
      3. Two position
      4. Controllable pitch
      5. Identification
        1. McCauley
        2. Sensenich
      6. Constant speed
      7. Feathering
    4. Propeller Construction
      1. Wood propellers
      2. Aluminum propellers
      3. Steel propellers
      4. Composite propellers
    5. Propeller Installation and balancing
      1. Tapered shaft
      2. Flanged shaft
      3. Splined shaft
      4. Propeller safetying
      5. Propeller blade tracking
      6. Propeller balancing
    6. Propeller Maintenance
      1. Inspections and checks
      2. Service
      3. Repairs
      4. Lubricants and lubrication
      5. Propeller Federal Aviation Regulations (FARs)
      6. Propeller repair stations
    7. Constant Speed Systems
      1. Theory
      2. Types
      3. Instrumentation
      4. Controls
      5. Governors
      6. System operation
      7. Installation and removal
      8. Inspections and checks
      9. Troubleshooting
      10. Service and repairs
    8. Feathering Systems
      1. Theory
      2. Types
      3. Controls
      4. System operation
        1. Instrumentation
        2. Accumulator
        3. Governors
      5. Installations
      6. Inspections and checks
      7. Troubleshooting
      8. Service and repair
    9. Reversing Systems
      1. Theory
      2. Types
      3. Controls
      4. System operation
        1. Instrumentation
        2. Precautions
      5. Installations
      6. Inspections and checks
      7. Troubleshooting
      8. Service and repair
    10. Propeller Icing Systems
      1. Theory
      2. Types
      3. Controls
      4. System operation
      5. Installations
      6. Inspections and checks
      7. Troubleshooting
      8. Service and repair
    11. Propeller Synchronizing Systems
      1. Theory
      2. Types
      3. Instruments
      4. Controls
      5. Special sub systems
      6. System operations
      7. Installation removal
      8. Inspections and checks
      9. Troubleshooting
      10. Service and repair
    12. Unducted Fans
      1. Theory
      2. Types
      3. System operations
      4. Systems components
      5. Installations
      6. Inspections and checks
      7. Troubleshooting
      8. Service and repairs


    Effective Term:
    Full Academic Year 2021/2022
  
  • AVM 229 - Engine Support Systems

    2.5 Credits, 5 Contact Hours
    1.25 lecture periods 3.75 lab periods

    Theory and application of support systems for gas turbine engines. Includes fire protection, fire detection systems, fire extinguishing agents and systems, and fire detection and extinguishing system maintenance. Also includes turbine engine pneumatic systems, pneumatic starting systems, thrust reversers, auxiliary power units, turbine engine removal and installation, and engine storage and transport.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of engine fire protection systems
    2. Demonstrate proficient knowledge of engine pneumatic systems
    3. Demonstrate proficient knowledge of auxiliary power units
    4. Demonstrate proficient knowledge of engine removal and installation procedures

    Outline:
    1. Fire Protection
      1. Requirements
      2. Fire detection
      3. Fire extinguishing
      4. Fire zones
    2. Fire Detection Systems
      1. Thermal switch
      2. Thermocouple
      3. Continuous loop
      4. Spot detector
      5. Rate of temperature rise
      6. Radiation sensing
      7. Smoke detection
      8. Overheat detectors
      9. Carbon monoxide detectors
      10. Combustible mixture
      11. Fiber optic detector
      12. Observations by crew
    3. Fire Extinguishing Agents
      1. Carbon dioxide
      2. Halogenated hydrocarbons
      3. Health and environmental precautions
      4. Fire Protection Systems
        1. Single point extinguishers
        2. Multiple point extinguishers
        3. High rate discharge systems
    4. Fire Detection and Extinguishing System Maintenance
      1. Inspections and checks
      2. Troubleshooting
      3. Servicing
      4. Repairs
    5. Turbine Engine Pneumatic Systems
      1. Bleed air sources
      2. Air to air heat exchangers
      3. Controls and monitoring
      4. Valves, lines and fittings
      5. Inspections/checks and servicing
    6. Pneumatic Starting Systems
      1. Starters
      2. Controls and operation
      3. Installations
      4. Maintenance
      5. Troubleshooting and repair
    7. Auxiliary Power Units
      1. Theory of operation
      2. Installations
      3. Controls and operations
      4. Starting system
      5. Fuel control system
      6. Speed sensing
      7. Power production
      8. Induction and exhausts
      9. Engine components
      10. Fire protection
      11. Inspection and checks
      12. Servicing
      13. Troubleshooting and repairs
    8. Thrust Reversers
      1. Operation and controls
      2. Installations
      3. Types
        1. Internal blockage
        2. External blockage
      4. Deflector valves
      5. System components
      6. Inspection/checks
      7. Service and repairs
      8. Troubleshooting
    9. Turbine Engine Removal
      1. Specialty equipment
        1. Hoists
        2. Transport dollies
      2. Engine mounts
      3. Attaching hardware
      4. Electrical disconnects
      5. Control disconnects
      6. Fuel lines attachments
      7. Pneumatic lines attachments
      8. Check list usage
    10. Turbine Engine Installation
      1. Pre-installation checks
      2. Mounting and attachment
      3. System connections
      4. Rigging of controls
      5. Inspections and checks
    11. Engine Storage and Transport
      1. Preserving processes
      2. Securing for shipping
      3. Shipping equipment


    Effective Term:
    Full Academic Year 2021/2022
  
  • AVM 231 - Engine Principles, Monitoring and Inspection

    3.5 Credits, 8 Contact Hours
    1.25 lecture periods 6.75 lab periods

    Principles, monitoring, and inspection of engines. Includes theory and construction of powerplants, requirements, types of engines, reciprocating engine design and construction, radial engine design and construction, reciprocating engine operating principles, engine power and efficiencies, turbine engine construction, turbine engine sub-assemblies, turbo prop engines, turbine engine operation principles, engine instrumentation, instrument principles of operation, maintenance of instruments and systems, and engine inspection requirements.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of reciprocating engine theory
    2. Demonstrate proficient knowledge of turbine engine theory
    3. Demonstrate proficient knowledge of engine instrumentation
    4. Demonstrate proficient knowledge of engine inspection procedures

    Outline:
    1. Theory and Construction of Powerplants:  Types and Terms
      1. Reciprocating
      2. Turbo jet
      3. Turbo props
      4. Fan Jet
      5. Pulse jet
      6. Ram jet
      7. Rocket
    2. Requirements
      1. Power and weight
      2. Fuel economy
      3. Durability and reliability
      4. Operating flexibility
      5. Compactness
      6. Power plant selection
    3. Types of Engines
      1. Inline engines
      2. Opposed, O type engines
      3. V-type engines
      4. Radial engines
    4. Reciprocating Engine Design and Construction
      1. Basic reciprocating part 
      2. Crank case sections
      3. Crank shafts
      4. Connecting rods
      5. Pistons and pins, rings
      6. Cylinders and valve train
      7. Bearings
      8. Accessory case
      9. Numbering of cylinders
      10. Firing order
    5. Radial Engine Design and Construction
      1. Nose section
      2. Power section
      3. Diffuser section
      4. Accessory section
      5. Numbering of cylinders
      6. Firing order
    6. Reciprocating Engine Operating Principles
      1. Otto cycle
      2. Two stroke cycle
      3. Four stroke cycle
    7. Engine Power and Efficiencies
      1. Work
      2. Horsepower
      3. Piston displacement
      4. Compression ratio
      5. Indicated horsepower
      6. Brake horsepower
      7. Friction horsepower
      8. Thrust horsepower
      9. Thermal efficiency
      10. Mechanical efficiency
      11. Volumetric efficiency
      12. Propulsive efficiency
    8. Turbine Engine Construction
      1. Air inlet
      2. Compressor section
        1. Centrifugal flow
        2. Axial flow
      3. Diffuser section
      4. Combustion
        1. Annular
        2. Can
        3. Can-annular
      5. Turbine section
      6. Exhaust section
      7. Accessory section
    9. Turbine Engine Sub-Assemblies
      1. Single spools
      2. Split spools and exhaust systems
      3. Cowlings
      4. Turbo fans
    10. Turbo Prop Engines
      1. Power section
      2. Gear section
      3. Torque section
      4. Accessory section
    11. Turbine Engine Operation Principles
      1. Thrust
        1. Force
        2. Mass
        3. Acceleration
      2. Newton Laws
      3. Brayton pressure cycle
      4. Thermal efficiency
    12. Engine Instrumentation
      1. Carburetor air temperature gage
      2. Fuel pressure
      3. Fuel flowmeter
      4. Manifold pressure
      5. Oil temperature
      6. Oil pressure
      7. Tachometer
      8. Cylinder head temperature
      9. Torque meter
      10. Suction
      11. Range markings
        1. Red
        2. Yellow
        3. Blue
        4. Green
        5. White
    13. Instrument Principles of Operation
      1. Mechanical temperature indicators
      2. Electrical temperature indicators
      3. Mechanical pressure indicators
      4. Electrical pressure indicators
      5. Mechanical RPM indicators
      6. Electrical RPM indicators
      7. Mechanical fluid rate of low indicators
      8. Electrical fluid rate of flow indicators
    14. Maintenance of Instruments and Systems
      1. Performing maintenance on instruments
      2. Servicing of instruments
      3. Inspection, check of instruments
      4. Troubleshooting instrument systems
      5. Repairs of instrument systems
    15. Engine Inspection Requirements
      1. Inspection regulations
        1. FAR Part 21
        2. FAR Part 33
        3. FAR Part 39
        4. FAR Part 43
        5. FAR Part 91
      2. Manufacturers inspection instructions
        1. Maintenance manual
        2. Service manual
        3. Service bulletins


    Effective Term:
    Full Academic Year 2021/22
  
  • AVM 232 - Reciprocating Engine Overhaul

    3.5 Credits, 8 Contact Hours
    1.25 lecture periods 6.75 lab periods

    Basic aircraft reciprocating engine overhaul. Includes engine components, wrist pins, connection rods, crankshafts, case, cam shafts, lifters, valves, push rods and tubes, rocker assemblies, accessories, lubrication, overhaul options overhaul credentials, overhaul procedures, reassembly after overhaul, engine installations, engine break-in, and test cell procedures.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of common reciprocating engine nomenclature
    2. Demonstrate proficient knowledge of reciprocating engine overhaul procedures
    3. Demonstrate proficient knowledge of reciprocating engine overhaul processes
    4. Demonstrate proficient knowledge of reciprocating engine operation

    Outline:
    1. Engine Components: Cylinders and Heads
      1. Barrels
      2. Skirts
      3. Fins
      4. Materials
      5. Taper
      6. Mounting holes
    2. Pistons
      1. Materials
      2. Shapes
      3. Ring groves
      4. Ring types
      5. Cam ground
    3. Wrist Pins
      1. Materials
      2. Caps and retainers
    4. Connection Rods
      1. Materials
      2. Bushing and bearings
      3. Lubrication
    5. Crankshafts
      1. Materials
      2. Manufacturing process
      3. Rod and bearing journals
      4. Throws
      5. Counter weights
      6. Flange and spline prop shafts
    6. Case
      1. Materials
      2. Construction
      3. Stud and bolts
      4. Alignment
      5. Lubrication
      6. Data plates
      7. Assembly concerns
    7. Cam Shafts
      1. Materials
      2. Manufacturing process
      3. Bearing journals
      4. Cam lobes
    8. Lifters
      1. Solid
      2. Hydraulic
      3. Lubrication
    9. Valves
      1. Types
      2. Materials
      3. Nomenclature
      4. Grinding
      5. Lapping
      6. Seats
      7. Guides
    10. Push Rods and Tubes
      1. Types
      2. Materials
      3. Lubrication
    11. Rocker Assemblies
      1. Types
      2. Materials
      3. Lubrication
    12. Accessories
      1. Gears
      2. Case
      3. Mounting pads
    13. Lubrication
      1. Principles
      2. Lubricants
      3. Oil pumps
      4. Filters
      5. Sumps
      6. Oil supplies
    14. Overhaul Options
      1. Complete
      2. Top overhaul
      3. Remanufacture
      4. Factory service instructions
      5. When to overhaul
    15. Overhaul Credentials
      1. Who is authorized
      2. A&P
      3. A&P – I/A
      4. Factory
      5. Repair station
    16. Overhaul Procedures
      1. Initial inspections
      2. Disassembly
      3. Cleaning
      4. Dimensional inspections/table of limits
      5. NDI inspections
      6. Magnetic particles
      7. Dye penetrate
      8. Eddy current
      9. X-ray
      10. Manuals
      11. Service instructions
      12. Individual component maintenance
      13. Crankshaft and camshaft run out
      14. Valve and cylinder grinding
      15. Spring, rod, lifter, and rocker inspection and service
    17. Reassembly After Overhaul
      1. Layout of components
      2. Tooling and equipment
    18. Torque
      1. Pre-lubrication
      2. Paperwork
    19. Engine Installations
      1. Motor mount
      2. Accessories
      3. Magnetos, plugs, and harnesses
      4. Starter
      5. Fuel systems
      6. Electrical
      7. Propeller
      8. Baffling
    20.    Engine Break-In
      1. Procedures
      2. Cooling
      3. Monitoring
      4. Instrumentation
      5. Run cells
      6. Aircraft installations
    21. Test Cell Procedures
      1. Minimum crew
      2. Equipment limitations
      3. Safety concerns


    Effective Term:
    Full Academic Year 2021/22
  
  • AVM 233 - Turbine Engines

    4 Credits, 8 Contact Hours
    2 lecture periods 6 lab periods

    Basic gas turbine engine and turbo propeller component makeup and repair. Includes inspection, servicing, and repairs performed on engine components: compressor, diffuser, combustion, accessory drive, and lubricating system. Also includes a reassembly overhaul.

    Button linking to AZ Transfer course equivalency guide    button image Prior Learning and link to PLA webpage

    Course Learning Outcomes
    1. Demonstrate proficient knowledge of common turbine engine nomenclature
    2. Demonstrate proficient knowledge of turbine engine overhaul procedures
    3. Demonstrate proficient knowledge of turbine engine overhaul processes
    4. Demonstrate proficient knowledge of turbine engine lubrication systems

    Outline:
    1. Engine Components: Compressor
      1. Principles of operation
        1. Pressure
        2. Velocity
        3. Compression ratio
        4. Surges
        5. Tall
        6. Bleed air
      2. Construction
        1. Materials
        2. Manufacturing processes
        3. Assembly
      3. Type Specifics
        1. Centrifugal flow
        2. Axial flow
        3. Reverse flow
        4. Stages
        5. Split spools
        6. Fans
        7. Hybrids
    2. Engine Components: Compressor
      1. Principles of operation
        1. Pressure
        2. Velocity
        3. Compression ratio
        4. Surges
        5. Tall
        6. Bleed air
      2. Construction
        1. Materials
        2. Manufacturing processes
        3. Assembly
      3. Type Specifics
        1. Centrifugal flow
        2. Axial flow
        3. Reverse flow
        4. Stages
        5. Split spools
        6. Fans
        7. Hybrids
      4. Vanes
        1. Guide vane
        2. Stator vane
        3. Rotor vane
        4. Fan blades
        5. Attachment
        6. Inspection
        7. Service and maintenance
        8. Repair
        9. Overhaul
    3. Engine Components:  Diffuser
      1. Principles of operation
        1. Pressure
        2. Velocity
        3. Routing
        4. Mixing
      2. Construction
        1. Materials
        2. Manufacturing processes
      3. Type specifics
        1. Centrifugal
        2. Axial flow
        3. Fuel routing
        4. Mixture control
        5. Attachment
      4. Maintenance
        1. Inspection
        2. Servicing
        3. Repairs
        4. Overhaul
    4. Engine Components: Combustion
      1. Principles of operation
        1. Fuel air mixing
        2. Distribution to burners
        3. Cooling
        4. Pressure of gasses
      2. Construction
        1. Materials
        2. Manufacturing processes
        3. Assembly
      3. Type specifics
        1. Can
        2. Can-annular
        3. Annular
        4. Reverse-flow combustors
        5. Stages
        6. Hybrids
      4. Turbine blades
        1. Inlet guide vanes
        2. Reaction turbine blade
        3. Impulse blade
        4. Turbine stators
        5. Blade shrouding
        6. Blade tip clearance
        7. Blade cooling
        8. Attachment
        9. Blade failures
      5. Maintenance
        1. Inspection
        2. Servicing
        3. Repairs
        4. Overhaul
    5. Engine Components:  Accessory Drives
      1. Purpose
        1. Drive pads
        2. Oil pump
        3. Fuel pump
        4. Hydraulic pump
        5. Electrical generation
        6. Starter
        7. Monitoring
      2. Construction
      3. Type specifics
      4. Power inputs
    6. Engine Components:  Lubricating System
      1. Lubricants
        1. Friction
        2. Heat
        3. Corrosion
        4. Contaminants
        5. Types
          1. Grades
          2. Additives
    7. Lubricant Systems
      1. Wet sump
      2. Dry sump
      3. Hot tank
      4. Cold tank
      5. Pressure
      6. Scavenge
      7. Vents
      8. Tanks
        1. Construction
        2. Purpose
      9. Air oil separation
      10. Pressurization
      11. Bearings and seals
        1. Materials
        2. Loads
        3. Alignment
        4. Vibration
        5. Ball type
        6. Roller type
        7. Split type
        8. Lubrication
        9. Seals
          1. Carbon
          2. Labyrinth
      12. Oil Pumps
        1. Gerotor type
        2. Vain type
        3. Spur-gear
        4. Pressure relief valves
      13. Filters
        1. Disc type
        2. Element
        3. S
        4. By-pass system
        5. Servicing
      14. Oil coolers
        1. Purpose
        2. Types
          1. Oil to air types
          2. Oil to fuel types
        3. By-pass systems
      15. Maintenance
        1. Monitoring
          1. Pressure
          2. Temperature
          3. Quantity
          4. Filter by-pass
          5. Chip detection
          6. Oil analysis
        2. Inspection
        3. Servicing
        4. Repairs
        5. Overhaul
    8. Engine Components:  Propeller Reduction Gear Systems
      1. Principles
        1. Transition of power
        2. Torque
        3. Assembly
      2. Construction
        1. Materials
        2. Manufacturing processes
        3. Assembly
      3. Type specifics
        1. Allison
        2. Garrett
        3. Pratt and Whitney
        4. General Electric
        5. Reduction Gearing
      4. Maintenance
        1. Inspection
        2. Servicing
        3. Repairs
        4. Overhaul
    9. Turbine Engine Overhaul
      1. Overhaul options
        1. Complete
        2. Partial selection
          1. Compressor
          2. Turbine
          3. Reduction gear
        3. Factory service instructions
        4. When to overhaul
      2. Authorization to perform maintenance
        1. Airframe and powerplant
        2. Factor
        3. Repair stations
        4. Inspection
      3. Overhaul procedures
        1. Initial inspection
        2. Disassembly
        3. Cleaning
        4. Dimensional inspections
        5. N.D.I. inspections
          1. Magnetic particle
          2. Eddy current
          3. X-ray
          4. Ultra sound
          5. Dye-penetrate
          6. Visual
        6. Manuals
        7. Service instructions
      4. Reassembly after overhaul
        1. Layout of components
        2. Tooling and equipment
        3. Torque
        4. Pre-treatments
        5. Paperwork
        6. Final inspection


    Effective Term:
    Full Academic Year 2021/2022
  
  • AVM 234 - Engine Fuel Metering and Operation

    4 Credits, 8 Contact Hours
    2 lecture periods 6 lab periods

    Fundamentals of aircraft fuel systems. Includes fuel metering theory and requirements, aviation fuels, float type carburetion, float carburetor maintenance and installation, and pressure carburetor maintenance and installation. Also includes fuel injection systems, Bendix fuel injection and maintenance, and Teledyne Continental Motors (TCM) fuel injection and maintenance. Also includes fuel metering system components and maintenance, turbine engine fuel systems components and maintenance, jet fuel controls; and reciprocating, turbine, and turbo propeller engine operations.

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    Course Learning Outcomes
    1. Demonstrate proficient knowledge of engine fuel metering systems
    2. Demonstrate proficient knowledge of aircraft carburetors
    3. Demonstrate proficient knowledge of engine fuel metering system maintenance
    4. Demonstrate proficient knowledge of engine operation

    Outline:
    1. Fuel Metering Theory
      1. Energy transformation
      2. Fuel air mixtures
      3. Efficiencies
      4. Power production
    2. Aviation Fuels
      1. Automotive gasoline
      2. Aviation gasoline
      3. Aviation turbine engine fuels
      4. Fuel ratings and grades
      5. Fuel additives
      6. Fuel contamination
      7. Fuel handling
    3. Fuel Metering Requirements
      1. Basic operations
      2. Operating environments
    4. Float Carburetors
      1. Float Type Carburetion
        1. Main metering system
        2. Mixture control
        3. Idle metering
        4. Idle mixture
        5. Acceleration system
        6. Power enrichment
      2. Float Carburetor Maintenance
        1. Destinations
        2. Data plates
        3. Inspection and checks
        4. Servicing
        5. Overhaul
      3. Float Carburetor Installations
        1. Mounting
        2. Adjustments
        3. Troubleshooting
        4. Supply lines
        5. Adjustments
    5. Pressure Carburetors
      1. Pressure Carburetor Components
        1. Fuel and air metering forces
        2. Mixture control
        3. Idle systems
        4. Acceleration systems
        5. Power enrichment
      2. Pressure Carburetor Maintenance
        1. Designations
        2. Inspection and checks
        3. Servicing
        4. Overhaul
        5. Adjustments
      3. Pressure Carburetor Installations
        1. Mounting
        2. Adjustments
        3. Troubleshooting
        4. Supply fuel lines
        5. Fuel pumps
    6. Fuel Injection Systems
      1. Principles of operation
      2. System components
      3. Fuel plumbing
      4. Fuel pumps
    7. Fuel Injection (Bendix)
      1. Components
        1. Metering forces
        2. Fuel flow
        3. Idle system
        4. Power enrichment
        5. Injectors
        6. Mixture control
      2. Fuel Injection Maintenance (Bendix)
        1. Inspection and checks
        2. Servicing
        3. Troubleshooting
        4. Repairs
        5. Adjustments
        6. Overhaul
    8. Fuel Injection (TCM)
      1. Components
        1. Fuel control unit
        2. Injection pump
        3. Fuel manifold
        4. Supply and return lines
        5. Injector nozzles
      2. Fuel Injection Maintenance (TCM)
        1. Inspection and checks
        2. Servicing
        3. Troubleshooting
        4. Adjustments
        5. Repairs
        6. Overhaul
    9. Fuel Metering Systems
      1. Fuel Metering System Components
        1. Lines and fittings
        2. Hoses and clamps
        3. Fuel pumps
        4. Mounting (installation)
      2. Fuel Metering System Components Maintenance
        1. Inspection and checks
        2. Servicing and repair
        3. Troubleshooting
        4. Adjustment and tests
    10. Reciprocating Engine Operations
      1. Terms and definitions
      2. Controls
      3. Engine monitoring instruments
      4. Performance charts
      5. Emergency procedures
      6. Operational checks
    11. Turbine Engine Fuel System Basics
      1. Requirements
      2. Jet fuel metering basics
      3. Turbine engine pressure and temperature sensing
      4. Engine start sequence
      5. Engine run parameters
      6. Engine shut down sequence
    12. Turbine Fuel System Components
      1. Main fuel pumps
        1. Constant displacement
        2. Variable displacement
      2. Fuel heaters
      3. Fuel filters
      4. Fuel spray nozzles
      5. Fuel manifolds
        1. Simplex
        2. Duplex
        3. Flow divider
      6. Fuel pressurizing and dump values
    13. Turbine Engine Jet Fuel Controls
      1. Principles of operation
      2. Venturi and regulator valves
      3. Metering value
      4. Speed sensing
      5. Fuel drain valve
      6. Pressure regulating valve
      7. Throttle valve
      8. Surge and temperature valve
      9. Translating cam
      10. Speed protection
    14. Turbine Engine Fuel System Maintenance
      1. Inspection and checks
      2. Servicing
      3. Adjustment and test
      4. Troubleshooting
      5. Repairs
    15. Turbine Engine Operations
      1. Terms and definitions
      2. Controls
      3. Engine monitoring instruments
      4. Performance charts
      5. Emergency procedures
      6. Operational checks
    16. Turbo Propeller Operations
      1. Terms and definitions
      2. Controls
      3. Engine monitoring instruments
      4. Performance charts
      5. Emergency procedures
      6. Operational checks


    Effective Term:
    Full Academic Year 2021/2022
 

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