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Cover

Course Prefix
ENGR
Course Number
83
School Identifier
Course Suffix
Schools
IID - Integrated Design, Engineering and Automation
Open Entry
No
Department
IENR - Engineering
Subject
ENGRDR - Engineering: Drafting
Program
ENGINR - Engineering
Course Title
Computer-Aided Design Techniques
Short Title
CAD Techniques
Course TOP Codes should be aligned with the program. Career Education must use an occupational TOP Code. Please check the TOP Code manual or consult with the Curriculum Specialist for assistance.
CB03 TOP Code
095300 - Drafting Technology
CB04 Course Credit Status
D - Credit - Degree Applicable
California Classification Code (CB11)
Y - Credit Course
Effective Implementation date of new/revised course
Fall 2018
Catalog Course Description
This intermediate-level course presents the latest techniques in parametric 3D computer-aided design and analysis. Students integrate design criteria such as materials of construction, manufacturing processes, cost constraints, aesthetics, and failure assessment to generate and refine industry-standard mechanical components.
Class Schedule Course Description
An intermediate-level course in parametric 3D CAD. Students satisfy mechanical product design requirements by creating CAD models that can be digitally assembled, tested, and refined.
Justification of Need
6 year review revision. This is an engineering design course which, through the use of simulated product design, exposes students to the many variables affecting mechanical part modeling. Students will learn the basics of part and assembly design as well as the parametric CAD techniques which the majority of employers require of modern engineers and drafters. Revised TOP code, refined wording in some sections, Justified Pre-requisite
Material Fee
0.00
Is this a cross listed course? No

Units/Hours

CB04: Credit Status
D - Credit - Degree Applicable
CB10 Course COOP Work Exp-ED
N - Is not part of a cooperative work experience education program.
This course is variable No
This course is approved for lab workload (1.0) No
If no hours per category enter zero.
Weekly Faculty Contact Hours Lecture Min
2.00
Weekly Faculty Contact Hours Lecture Max
Weekly Faculty Contact Hours Lab Min
4.00
Weekly Faculty Contact Hours Lab Max
Weekly Faculty Contact Hours Learn Ctr Min
0.00
Weekly Faculty Contact Hours Learn Ctr Max
Weekly Faculty Contact Hours Total Min
6.00
Weekly Faculty Contact Hours Total Max
CB07 Min Units
3.00
CB06 Max Units
3.00
Total Min Unit Calculation
Lecture Lab Learn Ctr Total
Weekly Faculty Contact Hours2.004.000.006.00
Total Contact Hours33.2066.400.0099.60
Lecture Hour Equivalent2.003.330.005.33
Full Time Equivalent Faculty13.3322.200.0035.53
Units2.001.000.003.00
Outside of Class Hours66.40
Total Student Learning Hours166.00
Total Max Unit Calculation
Lecture Lab Learn Ctr Total
Weekly Faculty Contact Hours0.000.000.000.00
Total Contact Hours0.000.000.000.00
Lecture Hour Equivalent0.000.000.000.00
Full Time Equivalent Faculty0.000.000.000.00
Units0.000.000.003.00
Outside of Class Hours0.00
Total Student Learning Hours0.00
Maximum Enrollment 30
Anticipated Enrollment 30
Maximum WFCH
180.000
Average WFCH
180.000
Open Entry
No
Grading Method
Letter Grade or Pass/No Pass

Repeatability

Only select YES if non-credit or a qualified KNES Course
Repeatable
No
The Functionally Identical or Fractional Courses are editable by admin only.
Functionally Identical or Fractional Courses
Repeatability Group Information
If this course is part of a Repeatability Group, click the checkbox below.
This course is part of a Repeatability Group No

Distance Education

Each mode of instruction for an existing course intended for delivery by Distance Education (DE) shall be separately reviewed and approved by the Curriculum Committee prior to being offered. DE mode of instruction includes any regularly scheduled work that replaces otherwise scheduled class (“face”) time. [per Education Code 55378]
This course is/or proposed for DE
Describe how this is designed for accessibility

General Education/Transfer

Degree Transfer Applicability
Proposed Transfer Types
Acceptable to CSUC, UC or Private
Removing GE? No
Explanation
UC Transferable Course
Y - UC Credit
General Education
UC Approval Date
CSU Approval Date
CSU GE Approval Date
IGETC Approval Date
Local GE Approval Date
Comparable SC/IVC Courses
Comparable Transfer Courses
Computer-Aided Design
Course Number
MAE 52
Articulation College System
UC
4-yr Institution
UC Irvine
Civil Engineering CAD I + Lab
Course Number
CE 127+CE 127L
Articulation College System
CSU
4-yr Institution
CSU Pomona, Polytechnic
Course Number
Articulation College System
4-yr Institution
Course Number
Articulation College System
4-yr Institution
SC/IVC Code No
CSU GE Yes
TR - Transferable as an elective-does not fit GE pattern
CSU AI Areas No
IGETC No
Cal-GETC No
CID

Requisites

Course Requisites
Recommended Preparation
Requisite Comment
DR 50
Parenthesis
Condition
Parenthesis
Conditions of Enrollment Catalog View
 

Requisite Validation

Legacy Requisite Validation

Learning Objectives



Bloom's Taxonomy

Students participating in this class will:
Create a 3D CAD model of a part using a modern parametric 3D computer-aided design system. Demonstrate the skills required to create a complex mechanical 3D part requiring at least 5 distinct feature profiles based on a combination of written and pictorial information.
Generate a 3D CAD model of an assembly using multiple parts and constrain part movement using geometric relations. Demonstrate the ability to insert, move, mate, and animate at least 3 independent parts in a modern 3D parametric CAD assembly.
Create a complete set of orthographic engineering drawings to ANSI or ISO standards, including all necessary views, notes, dimensions, labels, and symbols.
Model and refine a part using finite element simulations to reduce cost, minimize material consumption, or improve stress characteristics under load.
Create realistic renderings or motion animations of parts or assemblies based on specified function, material, and geometry.

Content

If no fields show, then the lecture or lab fields on the Units/Hours tab are 0
Course Lecture Content (Use outline format)
  1. Introduction to the parametric 3D computer-aided design process
    1. Feature-based modeling basics
    2. Model browser and part history
    3. Part analysis and methods of model construction
    4. Parametric modeling capabilities including Finite Element Analysis (FEA)
    5. Solid modeling methods and presentation
  2. Sketching and 2D profile building
    1. Sketch drawing commands
      1. Lines
      2. Splines
      3. Circles
      4. Ellipses and arcs
      5. Polygons
    2. Sketch modifying commands
      1. Moving, rotating, and scaling
      2. Single and multiple duplication
    3. Relations and parametric sketch controls
    4. Dimensioning, equations, and displays
  3. Part Modeling And Editing
    1. Part profile development
      1. Extruding
      2. Revolving
      3. Sweeping
      4. Embossing
    2. Part modifying commands
      1. Moving, rotating, and scaling
      2. Single and multiple duplication
      3. Hole wizard
      4. Fillets and chamfers
    3. Viewing planes, shade modes, and rendering
    4. Reference geometry
      1. Points
      2. Axes
      3. Planes
    5. Parametric feature properties and editing with the model browser
    6. Material properties and finishes
    7. Compound geometry features and baseline mechanical library components
      1. Nuts, bolts, and washers
      2. Springs
      3. Gears, cams, and linkages
      4. Mechanisms
  4. Assembly Building and Dynamic Constraints
    1. Inserting parts and file management
    2. Assembly modification commands
      1. Moving and copying
      2. Arrays
      3. Rotation
    3. Aligning parts using constraints and relations
    4. Dynamic testing of part models and interference verification
  5. Drawings and Projected Views of Parts and Assemblies
    1. New drawings and templates
    2. Inserting parts
      1. Orthographic projections
      2. Auxiliary projections
      3. Section views
      4. Detail views
      5. Pictorial projections
    3. Inserting assemblies
      1. Complete assemblies
      2. Exploded assemblies
      3. Bill of materials and parts lists
    4. Dimensioning and formatting
  6. Manufacturing and Process Specific Modeling Methods
    1. Properties of materials
    2. Selecting materials of construction
    3. Modeling for cast and molded parts
      1. Uniform wall thickness
      2. Draft analysis
      3. Lofting and shell commands
      4. Supports and vanes
      5. Embossing
      6. Gates, vents, ejectors, and flow paths
      7. Mold tool design factors
    4. Modeling for machined and welded parts
      1. Conventional machining impact on part geometry
      2. Non-conventional machining uses on part geometry
      3. Slots and recesses
      4. Threads and patterns
      5. Modeling weld joints
      6. Weld symbols and call-outs
    5. Modeling for forged, stamped, and
    6. Sheet Metal
      1. Thin-feature parts
      2. Defining sheet metal parts
      3. Creating edge flanges
      4. Modify sketch command
      5. Converting to sheet metal
  7. Dynamic Part and Assembly Analysis and finite element analysis (FEA)
    1. Introduction to FEA
    2. Basic engineering equations
    3. Material property data tables
    4. Thermal tests
    5. Stress tests
    6. Flow tests
    7. Design optimization using iterative analysis
    8. Engineering report formats and presentations
  8. Mechanical Design Project
    1. Complete mechanical design project parts, assemblies and drawings to specific input criteria
    2. Develop a presentation using images and research material exhibiting the design characteristics of parts and assembly
  9. Optional CAD certification exam
Course Lab/Activity Content

 

  1. Introduction to the parametric 3D computer aided design process
    1. Complete a worksheet covering parametric modeling standards and mechanical design concepts
    2. Create a new part, assembly, and drawing file and create links between them
    3. Use finite element analysis (FEA) to test a simple part under one load
  2. Sketching and 2D profile building
    1. Complete a worksheet covering parametric sketching, 2D relations, and dimensions
    2. Create several sketch profiles containing:
      1. Lines
      2. Splines
      3. Circles
      4. Ellipses and arcs
      5. Polygons
    3. Apply the following sketch commands to create compound elements:
      1. Moving, rotating, and scaling
      2. Single and multiple duplication 
    4. Add, edit, and remove basic relations to a sketch profile
    5. Add basic parametric dimensions and one dependent equation to a sketch profile
  3. Part Modeling Feature Editing
    1. Complete a worksheet covering parametric feature modeling, common mechanical part terms and geometries, and part file management
    2. Create several mechanical parts containing:
      1. Extrusions
      2. Revolve profiles
      3. Sweep profiles
      4. Embossed profiles and text
    3. Generate and edit compound part elements using the following feature properties and aids:
      1. Moving, rotating, and scaling
      2. Single and multiple duplications 
      3. Hole wizard
      4. Fillets and chamfers
      5. Reference points, axes, and planes
      6. Model browser position adjusting and rebuilding
      7. Shade rendering and scene building
      8. Material properties
    4. Insert and edit several compound geometry features and baseline mechanical library components into part files, such as:
      1. Nuts, bolts, and washers
      2. Springs
      3. Gears, cams, and linkages
      4. Mechanisms
    5. Perform simple FEA stress analysis tests on basic mechanical parts and generate result reports
  4. Assembly Building and Dynamic Constraints
    1. Complete a worksheet covering parametric feature modeling, common mechanical part terms and geometries, and part file management
    2. Create, edit, and arrange several assemblies using 3D part models
    3. Aligning parts using constraints and relations
    4. Dynamic testing of part models and interference verification
  5. Drawings and Projected Views of Parts and Assemblies
    1. Complete a worksheet covering advanced ANSI and ISO standards, including templates, GDT elements, dimensioning, notes, and file conventions
    2. Using existing parts, generate several new drawings showing all standard orthographic and pictorial projected views within scaled templates
    3. Using existing parts, generate several new drawings showing all standard orthographic, pictorial, exploded assembly, and complete assembly projected views within scaled templates
    4. Add dimensions and notes to all drawings according to ANSI standards and create parts lists or bill of materials as necessary.
    5. Create rendered scenes with professional level detailed part views.
    6. Create a video and multimedia presentation using the parametric modeling program
  6. Manufacturing and process specific modeling methods
    1. Complete a worksheet covering all major manufacturing methods and engineering design materials
    2. Modify and create part and assembly models with geometric features which conform to manufacturing needs for the following processes:
      1. Casting
      2. Injection molding
      3. Machining
      4. Welding
      5. Forging
      6. Stamping
      7. Forming
      8. Non-conventional fabrication
  7. Dynamic Part and Assembly Analysis and finite element analysis (FEA)
    1. Complete several FEA stress tests on parts and assemblies and generate a report which explains the results
    2. Refine several part and assembly models using FEA data to improve specific design variables
    3. Complete several FEA temperature tests on parts and assemblies and generate a report which explains the results
  8. Mechanical Design Project and Optional CAD Certification
    1. Complete a mechanical design project which includes:
      1. Mechanical parts with design features integrating manufacturing method, material properties, cost considerations, and aesthetics
      2. An assembly with multiple parts which has interference and fit verification
      3. A complete working set of drawings, a parts list, rendered scenes with the parts and assembly, and a video showing the assembled components
      4. A multimedia presentation describing the function, expected cost, and manufacturing procedure associated with the assembly
    2. Complete the optional CAD certification exam

 

Assignments

Typical Outside-of-Class Assignments
Reading Assignments
Reading assignments incorporating textbook and instructor handouts which depict and analyze modern problems relating to modern parametric CAD systems, part and assembly modeling, finite element testing, material science, manufacturing, and engineering design principles.
Writing Assignments
Problem-solving exercises of increasing complexity, which require the successful use of 3D CAD part and assembly modeling, ANSI and ISO standard orthographic projections with dimensions and notation, static and dynamic computer-aided model testing, manufacturing process studies, and engineering calculations. Worksheets and drafting exercises consisting of technical reports, multiple choice identification, and calculations which reinforce knowledge gained through reading assignments, individual research, and case studies.
Oral Assignments
Self-directed research and development of a mixed media presentation relating to modern mechanical product design. Students will design a mechanical assembly utilizing parametric CAD software and refine the assembly through analysis of simulated stress testing, manufacturing process adjustment, and cost reduction.
Other Assignments
Self-directed research and development of a mixed media presentation relating to modern mechanical product design. Students will design a mechanical assembly utilizing parametric CAD software and refine the assembly through analysis of simulated stress testing, manufacturing process adjustment, and cost reduction.

Method of Evaluation

Legacy Methods of Evaluation

     Worksheets, quizzes, and exams (objective and essay) which demonstrate the student's ability to identify, interpret, and solve common mechanical engineering design problems using conventional terms and techniques.
    Problem solving exercises which demonstrate the student's ability to interpret engineering data and object attributes, generate 2D and 3D parametric CAD models of key elements, apply orthographic methods to display solutions according to industry standards, and solve basic mechanical engineering and manufacturing problems.
    Creation of accurate and detailed 3D CAD models according to ANSI or ISO standards, which demonstrate the student's ability to apply measurement data, simulated stress tests, manufacturing benefits or drawbacks, and mechanical design features to common design problems.
    Presentation of an mechanical design project which includes 3D CAD models, projected drawing views according to ANSI or ISO standards, calculations, and graphical representations of solutions to an actual design problem with specific geometric, material, and manufacturing limitations.
    Practical exams which demonstrate the student' ability to apply the principles of graphic modeling to create, edit, and analyze 3D CAD models.  

STUDENT LEARNING OUTCOMES


Student will be able to create a 3D CAD model of a part using a modern parametric 3D computer-aided design system. Demonstrate the skills required to create a complex mechanical 3D part requiring at least 5 distinct feature profiles based on a combination of written and pictorial information.

Student will be able to generate a 3D CAD model of an assembly using multiple parts and constrain part movement using geometric relations. Demonstrate the ability to insert, move, mate, and animate at least 3 independent parts in a modern 3D parametric CAD assembly.

Student will be able to create a complete set of orthographic engineering drawings to ANSI or ISO standards, including all necessary views, notes, dimensions, labels, and symbols.

Student will be able to model and refine a part using finite element simulations to reduce cost, minimize material consumption, or improve stress characteristics under load.

Student will be able to create realistic renderings or motion animations of parts or assemblies based on specified function, material, and geometry.

123

Student Learning Outcomes

Outcome Text
Demonstrate the skills required to create a complex mechanical 3D part requiring at least 5 distinct feature profiles based on a combination of written and pictorial information.
Outcome Text
Demonstrate the ability to insert, move, mate, and animate at least 3 independent parts in a modern 3D parametric CAD assembly.
Outcome Text
Demonstrate student knowledge of creating, via one or more 3D solid models, a standard 2D orthographic engineering drawing with 1st and 3rd angle projections, dimensions, and labels.
Outcome Text
Analyze the geometric characteristics of a model and choose the best 3D modeling method to define the elements of the design, including sketch elements, sketch dimensions, features, and equations
Outcome Text
Using finite element testing, refine a part design to include cost reduction, material minimization, and maximum strength under expected loads
Outcome Text
Using a parametric CAD program, generate realistic renderings or animations which preview design configuration and appearance
Outcome Text
Create a semester project of a multi-component assembly demonstrating mastery of the various methods of designing parts, assemblies, and drawings using a parametric CAD progam
Outcome Text
Demonstrate the expertise required to pass the Certified SolidWorks Associate Exam (offered by SolidWorks Dassault Corporation). An adequate knowledge of part modeling and assembly is required to pass this test.

Required Texts

Specify Formatting Style
APA
Textbook (Minimum of 1 Required)
Recommended Yes
Condition or
Author(s) Tickoo, Sham
Title SolidWorks 2017 for Designers
Edition 2017
City
Publisher CADCIM Technologies
Year 2017
Rationale
ISBN # 978-1-942689
Textbook Transfer Data
Manual
Periodical
Software
Other Learning Materials

Library

Resource Needs
Library electronic resources will support this class No
N/A No
I recommend we add No
Materials in the Library support this class No
Other No
Legacy Additional Resources

Attached Files

Attach any required or supporting documents here. Supported file types include Word, PDF, Excel, and other similar file types.

Attached File

Codes/Dates

Dates
School Approval
08/25/2017
Curriculum Committee Approval
11/29/2017
Board of Trustees
01/22/2018
State Approval
06/11/1990
Technical Change Date
02/25/2013
Technical Change Comment
Delete ENGR 140 from recommended preparation. Change repeatability to NR in compliance with new Title 5 regulations.
Originator Wolken, Matthew
Origination Date
2017-08-20
Implement Date
2018-08-01
Instructional Services
Effective Implementation date of new/revised course Fall 2018
Classification and Codes
Division IID - Integrated Design, Engineering and Automation
Department IENR - Engineering
Program ENGINR - Engineering
Subject ENGR
Catalog Id 2301.00
CB03 TOP Code
095300 - Drafting Technology
CB00 Course Control Number
CCC000592100
CB04 Course Credit Status
D - Credit - Degree Applicable
CB05 Course Transfer Status
A - Transferable to both UC and CSU.
CB08 Course Basic Skill Status (PBS Status)
N - Not Basic Skills
CB09 SAM Code
C - Clearly Occupational
CB10 Course COOP Work Exp-ED
N - Is not part of a cooperative work experience education program.
CB11 California Classification Codes
Y - Credit Course
CB13 Special Class Status
N - Course is not a special class.
CB21 Course Prior to College
Y - Not applicable
CB22 Non Credit Course Category
Y - Not Applicable, Credit course
CB23 Funding Agency Category
Y - Not Applicable (funding not used to develop course)
CB24 Program Course Status
Program Applicable
CB25 Course General Education Status
CB26 Course Support Course Status
CB27 Course Upper Division Status
CIP Code
Soc Code
Course Accounting Method
C - Census
Material Code
Required Prereq
No
Conditions of Enrollment Catalog View
Prereq Code
Prereq Earned
Required Coreq
No
Coreq Key
Coreq Course(s)
Admin Use Only

Methods of Instruction

Method of Instruction
Methods of Instruction
L-L - Lecture/Lab Combination

ASSIST

Queue for Assist No
Last Request From Queue
Last Direct Request

ASSIST Preview

Prefix ENGR
Course Number
83
Content
  1. Introduction to the parametric 3D computer-aided design process
    1. Feature-based modeling basics
    2. Model browser and part history
    3. Part analysis and methods of model construction
    4. Parametric modeling capabilities including Finite Element Analysis (FEA)
    5. Solid modeling methods and presentation
  2. Sketching and 2D profile building
    1. Sketch drawing commands
      1. Lines
      2. Splines
      3. Circles
      4. Ellipses and arcs
      5. Polygons
    2. Sketch modifying commands
      1. Moving, rotating, and scaling
      2. Single and multiple duplication
    3. Relations and parametric sketch controls
    4. Dimensioning, equations, and displays
  3. Part Modeling And Editing
    1. Part profile development
      1. Extruding
      2. Revolving
      3. Sweeping
      4. Embossing
    2. Part modifying commands
      1. Moving, rotating, and scaling
      2. Single and multiple duplication
      3. Hole wizard
      4. Fillets and chamfers
    3. Viewing planes, shade modes, and rendering
    4. Reference geometry
      1. Points
      2. Axes
      3. Planes
    5. Parametric feature properties and editing with the model browser
    6. Material properties and finishes
    7. Compound geometry features and baseline mechanical library components
      1. Nuts, bolts, and washers
      2. Springs
      3. Gears, cams, and linkages
      4. Mechanisms
  4. Assembly Building and Dynamic Constraints
    1. Inserting parts and file management
    2. Assembly modification commands
      1. Moving and copying
      2. Arrays
      3. Rotation
    3. Aligning parts using constraints and relations
    4. Dynamic testing of part models and interference verification
  5. Drawings and Projected Views of Parts and Assemblies
    1. New drawings and templates
    2. Inserting parts
      1. Orthographic projections
      2. Auxiliary projections
      3. Section views
      4. Detail views
      5. Pictorial projections
    3. Inserting assemblies
      1. Complete assemblies
      2. Exploded assemblies
      3. Bill of materials and parts lists
    4. Dimensioning and formatting
  6. Manufacturing and Process Specific Modeling Methods
    1. Properties of materials
    2. Selecting materials of construction
    3. Modeling for cast and molded parts
      1. Uniform wall thickness
      2. Draft analysis
      3. Lofting and shell commands
      4. Supports and vanes
      5. Embossing
      6. Gates, vents, ejectors, and flow paths
      7. Mold tool design factors
    4. Modeling for machined and welded parts
      1. Conventional machining impact on part geometry
      2. Non-conventional machining uses on part geometry
      3. Slots and recesses
      4. Threads and patterns
      5. Modeling weld joints
      6. Weld symbols and call-outs
    5. Modeling for forged, stamped, and
    6. Sheet Metal
      1. Thin-feature parts
      2. Defining sheet metal parts
      3. Creating edge flanges
      4. Modify sketch command
      5. Converting to sheet metal
  7. Dynamic Part and Assembly Analysis and finite element analysis (FEA)
    1. Introduction to FEA
    2. Basic engineering equations
    3. Material property data tables
    4. Thermal tests
    5. Stress tests
    6. Flow tests
    7. Design optimization using iterative analysis
    8. Engineering report formats and presentations
  8. Mechanical Design Project
    1. Complete mechanical design project parts, assemblies and drawings to specific input criteria
    2. Develop a presentation using images and research material exhibiting the design characteristics of parts and assembly
  9. Optional CAD certification exam
Lab Content

 

  1. Introduction to the parametric 3D computer aided design process
    1. Complete a worksheet covering parametric modeling standards and mechanical design concepts
    2. Create a new part, assembly, and drawing file and create links between them
    3. Use finite element analysis (FEA) to test a simple part under one load
  2. Sketching and 2D profile building
    1. Complete a worksheet covering parametric sketching, 2D relations, and dimensions
    2. Create several sketch profiles containing:
      1. Lines
      2. Splines
      3. Circles
      4. Ellipses and arcs
      5. Polygons
    3. Apply the following sketch commands to create compound elements:
      1. Moving, rotating, and scaling
      2. Single and multiple duplication 
    4. Add, edit, and remove basic relations to a sketch profile
    5. Add basic parametric dimensions and one dependent equation to a sketch profile
  3. Part Modeling Feature Editing
    1. Complete a worksheet covering parametric feature modeling, common mechanical part terms and geometries, and part file management
    2. Create several mechanical parts containing:
      1. Extrusions
      2. Revolve profiles
      3. Sweep profiles
      4. Embossed profiles and text
    3. Generate and edit compound part elements using the following feature properties and aids:
      1. Moving, rotating, and scaling
      2. Single and multiple duplications 
      3. Hole wizard
      4. Fillets and chamfers
      5. Reference points, axes, and planes
      6. Model browser position adjusting and rebuilding
      7. Shade rendering and scene building
      8. Material properties
    4. Insert and edit several compound geometry features and baseline mechanical library components into part files, such as:
      1. Nuts, bolts, and washers
      2. Springs
      3. Gears, cams, and linkages
      4. Mechanisms
    5. Perform simple FEA stress analysis tests on basic mechanical parts and generate result reports
  4. Assembly Building and Dynamic Constraints
    1. Complete a worksheet covering parametric feature modeling, common mechanical part terms and geometries, and part file management
    2. Create, edit, and arrange several assemblies using 3D part models
    3. Aligning parts using constraints and relations
    4. Dynamic testing of part models and interference verification
  5. Drawings and Projected Views of Parts and Assemblies
    1. Complete a worksheet covering advanced ANSI and ISO standards, including templates, GDT elements, dimensioning, notes, and file conventions
    2. Using existing parts, generate several new drawings showing all standard orthographic and pictorial projected views within scaled templates
    3. Using existing parts, generate several new drawings showing all standard orthographic, pictorial, exploded assembly, and complete assembly projected views within scaled templates
    4. Add dimensions and notes to all drawings according to ANSI standards and create parts lists or bill of materials as necessary.
    5. Create rendered scenes with professional level detailed part views.
    6. Create a video and multimedia presentation using the parametric modeling program
  6. Manufacturing and process specific modeling methods
    1. Complete a worksheet covering all major manufacturing methods and engineering design materials
    2. Modify and create part and assembly models with geometric features which conform to manufacturing needs for the following processes:
      1. Casting
      2. Injection molding
      3. Machining
      4. Welding
      5. Forging
      6. Stamping
      7. Forming
      8. Non-conventional fabrication
  7. Dynamic Part and Assembly Analysis and finite element analysis (FEA)
    1. Complete several FEA stress tests on parts and assemblies and generate a report which explains the results
    2. Refine several part and assembly models using FEA data to improve specific design variables
    3. Complete several FEA temperature tests on parts and assemblies and generate a report which explains the results
  8. Mechanical Design Project and Optional CAD Certification
    1. Complete a mechanical design project which includes:
      1. Mechanical parts with design features integrating manufacturing method, material properties, cost considerations, and aesthetics
      2. An assembly with multiple parts which has interference and fit verification
      3. A complete working set of drawings, a parts list, rendered scenes with the parts and assembly, and a video showing the assembled components
      4. A multimedia presentation describing the function, expected cost, and manufacturing procedure associated with the assembly
    2. Complete the optional CAD certification exam

 

Course Description
This intermediate-level course presents the latest techniques in parametric 3D computer-aided design and analysis. Students integrate design criteria such as materials of construction, manufacturing processes, cost constraints, aesthetics, and failure assessment to generate and refine industry-standard mechanical components.
Is Honors
No
Lecture Hours
33.2000
Lab Hours
66.4000
Outline Approval Date
2017-11-29
Outline Effective Date
2018-08-01
Prerequisites
Corequisites
Advisories
Recommended Preparation
DR 50
Enrollment Limitations
Objectives
  • Create a 3D CAD model of a part using a modern parametric 3D computer-aided design system. Demonstrate the skills required to create a complex mechanical 3D part requiring at least 5 distinct feature profiles based on a combination of written and pictorial information.
  • Generate a 3D CAD model of an assembly using multiple parts and constrain part movement using geometric relations. Demonstrate the ability to insert, move, mate, and animate at least 3 independent parts in a modern 3D parametric CAD assembly.
  • Create a complete set of orthographic engineering drawings to ANSI or ISO standards, including all necessary views, notes, dimensions, labels, and symbols.
  • Model and refine a part using finite element simulations to reduce cost, minimize material consumption, or improve stress characteristics under load.
  • Create realistic renderings or motion animations of parts or assemblies based on specified function, material, and geometry.
Instruction Methods
Lecture/Lab Combination
Evaluation Methods
Other Texts
Assignments
  • Reading

    Reading assignments incorporating textbook and instructor handouts which depict and analyze modern problems relating to modern parametric CAD systems, part and assembly modeling, finite element testing, material science, manufacturing, and engineering design principles.

  • Writing

    Problem-solving exercises of increasing complexity, which require the successful use of 3D CAD part and assembly modeling, ANSI and ISO standard orthographic projections with dimensions and notation, static and dynamic computer-aided model testing, manufacturing process studies, and engineering calculations. Worksheets and drafting exercises consisting of technical reports, multiple choice identification, and calculations which reinforce knowledge gained through reading assignments, individual research, and case studies.

  • Oral Assignments

    Self-directed research and development of a mixed media presentation relating to modern mechanical product design. Students will design a mechanical assembly utilizing parametric CAD software and refine the assembly through analysis of simulated stress testing, manufacturing process adjustment, and cost reduction.

  • Other Assignments

    Self-directed research and development of a mixed media presentation relating to modern mechanical product design. Students will design a mechanical assembly utilizing parametric CAD software and refine the assembly through analysis of simulated stress testing, manufacturing process adjustment, and cost reduction.