Methods and characteristics of successful manufacturing engineers and managers. Introduction to engineering and technology, design, and project management. Lab.
Western civilization from Egyptian antiquity to Renaissance from perspective of changes in civilization enabled by technology. Creativity throughout history. How to improve personal creativity.
Western civilization from Renaissance to present from perspective of changes in civilization enabled by technology. Creativity throughout history. How to improve personal creativity.
Methods and procedures to shape materials using basic machine tools; cutting theory, tool selection, metrology methods, and machine operation. Introduction to computer numerical control.
Manual and computer-assisted programming of computer numerical controlled (CNC) equipment. Developing CNC programs to manufacture parts for high production.
Theory, application, and economics of various joining processes; welding, soldering, riveting, threaded fasteners, adhesives, mechanical assembly tools and techniques.
Capabilities and applications of common metal-shaping processes, including relationships between part design, material, and process parameters.
Tools and principles of quality in manufacturing systems. Basic tools, variation, loss function, cost of quality, SPC, DOE, FMEA, and QFD. Comprehensive project in system design to improve quality.
Understanding plastic materials, properties, and uses. Survey of plastic-manufacturing processes. Designing plastic products and manufacturing systems.
Lectures on personal and professional development.
Working in teams to solve problems encountered in local industry. Project management and reporting under guidance of industry supervisor and department faculty.
Designing special tooling for manufacturing processes using solids-modeling design systems.
Sensors, actuators, robotics, part feeding and assembly, PLCs, pneumatic and hydraulic control, justifying automation.
Comprehensive two-semester design experience from conception to manufacturing planning and prototype. Product development process. Economic and manufacturing considerations. Intellectual property assignment agreement required.
Key issues and problems facing managers in start-up companies. Team-taught by professors and entrepreneurs; particularly helpful for students starting businesses.
Analyzing product specifications and production requirements for manufacturing. Equipment selection and justification; facility layout and material-handling system design; process-improvement techniques.
(1–3:Arr.:Arr. ea.) F, W, Sp, Su Prerequisite: instructor's consent.
CAD/CAM programming techniques and requirements for manufacturing components on computer numerical-control machine tools, emphasizing CAM programming, postprocessors, and CAM software evaluation.
Analyzing lean manufacturing systems. Numerous examples and case studies from industry demonstrating principles of lean production, inventory management, and lean distribution. Project with a local company to gain confidence with these principles in an industrial setting.
Applying and integrating software and information technologies in planning, executing, and monitoring production operations.
Structure, processing, properties, and uses of composite materials, including various manufacturing methods and the relationship between properties and fabrication.
Introduction to design evaluation techniques, including design for mechanical assembly, printed circuit board assembly, plastic injection molding, machining, and sheet metal fabrication.
Advanced design of net-shape products utilizing CAD and CAE methods. Plastic injection mold design and construction. Rapid prototyping and injection molding project.
Design and optimization of manufacturing systems using simulation. Simulation languages and modeling methodology.