SKDR 101 - Blueprint Reading

1. Clearly communicate graphically with sketches or drawings using traditional drafting tools.
   1. Identify and demonstrate correct use of traditional sketching and drawing tools.
   2. Use square and isometric grid paper to make one view, multiview, and pictorial sketches.
   3. Identify and correctly draw conventional line symbols to make sketches and drawings.
   4.  Neatly place hand-made standard letters and numbers on sketches and drawings.
   5. Make free-hand well proportioned sketches of simple machine part shapes to include circle, arc, and polygon plane figures, and polyhedral solids.
2. Communicate design ideas using American National Standards Institute (ANSI) practices.
   1. Demonstrate correctly visualized real and imagined objects by making standard drawings and sketches.
   2. Read, write, and correctly use the nomenclature of technical design graphics.
   3. Correctly demonstrate orthographic projection theory and conventional ANSI practices by reading and making orthographic multiview, isometric and oblique pictorial, and sectional view representations typical of engineered objects.
   4. Execute course work accurately, legibly, neatly, and in a timely
3. Delineate graphic representations of points, lines, planes and solids
   1. Use prescribed geometric methods to:
      1. Bisect lines, arcs, and angles.
      2. Divide lines, areas, and volumes into equal and proportional parts.
      3. Copy, enlarge, or reduce the size of geometric figures in any prescribed orientation.
      4. Construct points, lines, polygons, planes, and curves.
      5. Construct lines, arcs, and circles with specified tangent conditions.
   2. Use traditional drafting tools and standard methods to make accurate drawings to dimensional specifications.
4. Describe the size of objects with standard dimensioning practices using various scales.
   1. Correctly demonstrate the ANSI concepts of contour dimensioning and geometric breakdown for giving size and location of various geometric shapes.
   2. Identify the features and parts of dimension information.
   3. Distinguish between size and location dimensions.
   4.  Create and read technical drawings at any specified scale.
   5. Use ANSI standard practices to place text information to drawings.
   6. Place and specify conventional numeric dimensions and notes.
5. Use traditional drafting tools to make multiview technical drawings following ANSI conventional practices.
   1. Interpret, read, and draw any or all of the six standard orthographic views using conventional practices.
   2. Correctly transfer height, width, and depth distances between views.
   3. Display correct conventional representations of standard geometric features.
   4. Identify and correctly display hidden, center, and visible lines in all views.
   5. Draw and identify normal, inclined, and oblique lines and surfaces in all views.
   6. Correctly draw positive and negative cylinders and cylinder deformations in all views.
   7. Plan drawing views to fit properly within the sheet area at the intended scale.
6. Create technical drawings with conventional sectional views following ANSI practices for manual drawing
   1. Demonstrate understanding of cutting-plane theory by correctly placing the cutting-plane line within technical drawings.
   2. List the names and identify the seven standard types of section views.
   3. Demonstrate understanding of standard practices for conventional features.
   4. Consistently draw correctly sectioned views when provided two orthographic views.
   5. Demonstrate correct hidden line practices for sectioned views.
   6. Correctly represent and place conventional break symbols, section-lining, and view identification where necessary.
7. Make pictorial representations of objects using axonometric and oblique drawing methods.
   1. Recognize the difference between orthographic projection, isometric drawing, perspective drawing, and oblique drawing.
   2. Make sketches on grid paper of objects with normal, inclined, oblique, cylindrical, and deformations of cylinders when provided two orthographic views.
   3. Consistently measure only along the isometric or oblique axes.
   4. List the advantages and limitations of orthographic multiview, isometric, and oblique representations of objects.
   5. Make isometric and oblique drawings with normal, inclined, oblique, cylindrical, deformations of cylinders, and irregular curves when provided two orthographic views.