EGR 165 - Introduction to Engineering Graphics

Credits: 4
Instructional Contact Hours: 6

Studies the graphic language applied to mechanical and civil engineering design. Develops skills in orthographic projection, multi-view drawings, isometric drafting, sectioning, auxiliary views, revolutions, developments, ANSI dimensioning, and tolerancing, annotation and descriptive geometry. Uses computer-aided drafting and analysis. Credit can be earned in EGR 165 or EGR 166 but not in both.

Prerequisite(s): MATH LEVEL 4
Corequisite(s): None
Lecture Hours: 30 Lab Hours: 60
Meets MTA Requirement: None
Pass/NoCredit: No

Outcomes and Objectives

Letter and construct multi-views of single mechanical components using orthographic projection using standard drafting instruments, pencils, and CAD.
1. Make measurements with inch and metric scales throughout the course
2. Draw geometric constructions as used on engineering drawings
3. Draw technical sketches using the principles of orthographic projection to construct multi-view and isometric drawings of objects with normal, inclined, oblique, cylindrical, and other types of surfaces
Construct sectional, auxiliary, and revolution, views of single mechanical components using standard drafting instruments, pencils, and CAD.
1. Select and apply conventional practices of projection, sectional views, intersections of surfaces and solid geometric shapes
2. Perform white printing and make copies of student executed original plots
3. Make large format plots of drawings on a plotter
Dimension and calculate tolerances for assembled mechanical components.
1. Draw dimensioned, toleranced and annotated, drawings of parts using the latest ANSI standards
2. Calculate limit dimensions for various classes of ANSI fit by using the appropriate ANSI tables
Draw and dimension multi-views of an assembly of mechanical components using orthographic projection.
1. Make measurements with inch and metric scales
2. Draw geometric constructions as used on engineering drawings
3. Draw technical sketches using the principles of orthographic projection to construct multi-view drawings of objects with normal, inclined, oblique, cylindrical, and other types of surfaces
4. Draw a set of project working drawings of an assembly of parts and the detailed individual parts. Examples may include tools, jigs, fixturing, injection molds, etc.
Construct views and projections of elements using principles of descriptive geometry.
1. Draw solutions to spatial relationships between points, lines, and planes by applying methods of descriptive geometry
2. Construct graphical analysis to determine displacements, velocities, and/or accelerations, of mechanical parts
3. Draw primary auxiliary projections
4. Construct graphic revolution of views about principle axes of projection