Interpretation of engineering drawings. Includes principles of orthographic projection, drafting symbols, surface finish symbols, welding symbols and geometric dimensioning and tolerancing symbols. One classroom, two lab hours.
2 Credit Hours
Mathematics for engineering technology students to prepare them for critical thinking, analytical reasoning and problem solving. Students will apply math to typical engineering technology problems from a variety of fields. Two classroom, two lab hours per week.
3 Credit Hours
Applied computer tools to solve engineering technology problems, emphasizing the integration of word processing, spreadsheets, presentation software and engineering research skills using the Internet. Applications of an integrated approach to research papers, engineering technology analysis, technical laboratory reports and technical presentations. One-half classroom, one and one-half lab hours per week.
1 Credit Hour
This course looks at the design elements, manufacturing and assembly of solid-body electric guitars. Science, Technology, Engineering & Mathematics (STEM) concepts that relate directly to guitars are used to help students make an applied learning connection. Two classroom, two lab hours per week.
3 Credit Hours
Introduction to computer-based solution of engineering and engineering technology problems. Includes the fundamentals and applications of computer-based software (MathCAD) and integration with other software for documentation of work, including proper use of units and unit systems. Software solution applications include graphing functions and data, basic statistical calculations, use of matrices, vectors, solution of simultaneous and an introduction to Boolean logic. One-half classroom, one and one-half lab hours per week.
1 Credit Hour
Application of the process of design and the interpretation of engineering drawings. Includes design development, product development, and problem solution, principles of orthographic projection, drafting symbols, surface finish symbols, and geometric dimensioning and tolerancing symbols. Student is exposed to parametric 3D CAD modeling for the purpose of creating parts and assemblies and to properly dimension and detail drawings to effectively communicate design intent. Three classroom, three lab hours per week.
4 Credit Hours
Utilize SolidWorks mechanical design automation software to build parametric models of parts and assemblies and learn how to make drawings of those parts and assemblies. Three classroom, three lab hours per week.
4 Credit Hours
A course in the design, development and operation of additive manufacturing machines. Types of machines, input types, materials and design considerations will be accomplished as part of the hands-on model making class. Two classroom, two lab hours per week.
3 Credit Hours
A course designed to examine the post process aspects of bonding, securing, finishes and assembly operation of components. Emphasis on metal materials and case studies. Two classroom, two lab hours per week.
3 Credit Hours
The laws and application of the principles of thermodynamics as they apply to internal combustion engines, steam cycles and refrigeration. Two classroom, two lab hours per week.
3 Credit Hours
Terminology, designations of metals and the relationship among the properties of metals, the environment and heat treatment processes. Selecting and testing materials. Factors related to the selection of nonmetallic materials and the relationship between the nature of the materials and their properties. Thermoplastics, thermosetting, ceramics, composites and glasses are included. Three classroom, three lab hours per week.
4 Credit Hours
Analysis of various types of two and three dimensional force systems, analysis of trusses, frames, friction, center of gravity and moment of inertia. Two classroom, three lab hours per week.
3 Credit Hours
Stress and deformations, torsions, shear and moments in beams, stresses in beams, beam deflections, combined stresses. This course is algebra based. Two classroom, three lab hours per week.
3 Credit Hours
A project-based course utilizing reverse engineering to integrate ABET professional components in preparing students with the knowledge, techniques, skills, and use of modern equipment in mechanical engineering technology. The course strengthens student ability in specifying, installing, building, testing, documenting, operating, selling or maintaining basic mechanical systems. Two classroom, two lab hours per week.
3 Credit Hours
Varied content offering of special interest to the discipline but not covered within existing courses; may be scheduled in a classroom/seminar setting or in non-traditional format.
0.5 - 9 Credit Hours
Essentials of fluid properties, fluid statics, flow measurements, force of a fluid jet including turbo machinery, open channel flow losses through flow in pipe and duct and pump and fan performance and operation. Two classroom, two lab hours per week.
3 Credit Hours
Kinematics and kinetics of rectilinear motion, curvilinear motion and rotation; plane motion, work, energy, power, impulse and momentum. Two classroom, two lab hours per week.
3 Credit Hours
Design and evaluation of machine elements, design for safety, strength, stability and wear. Analysis and design of gears, shafts, drive systems, mechanical fasteners, permanent connections, roller and journal bearings and springs. A design project including an oral presentation and written report is required. Two classroom, three lab hours per week.
3 Credit Hours
Students earn credits toward degree requirements for work learning experience. Students already working may apply to use that experience to meet internship requirements. Students establish learning outcomes and prepare related reports and/or projects each term. Ten work hours per week per credit hour.
1 - 4 Credit Hours
Instruction to the core skills of an engineering professional. Technical skills, soft skills and team management techniques. Concepts of lifelong learning, continued personal improvement, engineering ethics, working in a diverse industry and future trends in engineering technology. One-half classroom, one and one-half lab hours per week.
1 Credit Hour
Assessment of achievement by Mechanical Engineering Technology students in attaining program outcomes by completing a project demonstrating principles and practice of the major. Teamwork on projects will be emphasized. One classroom, six lab hours per week.
3 Credit Hours
Assessment of achievement by Manufacturing Engineering Technology students in attaining program outcomes by completing a project demonstrating principles and practice of the major. Teamwork on manufacturing projects will be emphasized. Two classroom, six lab hours per week.
5 Credit Hours