2024-2025 Undergraduate & Graduate Catalog
Bachelor of Science in Engineering, Product Design and Manufacturing Engineering Major
- Emphases
- General Emphasis
- Design Emphasis
- Manufacturing Systems Emphasis
- Robotics and Controls Emphasis
- Suggested Order of Coursework
Product design and manufacturing engineering focuses on all the processes needed to develop products, from design and planning to production and delivery of finished products. To this end, this branch of engineering involves a wide range of topics, such as ergonomics, needs identification, manufacturing processes, robotic systems, materials selection, programmable controllers, industrial engineering, and vision systems.
Students who select the product design and manufacturing engineering major prepare themselves for a variety of engineering careers and fulfill the educational requirements for taking the Fundamentals of Engineering professional examination before graduation.
The junior and senior years of the product design and manufacturing engineering program build upon the foundation courses to provide greater depth in engineering science, engineering design, and the focused areas of product design and manufacturing engineering. Students complete required and elective courses distributed in product design materials and manufacturing processes; process, assembly, and product engineering; manufacturing competitiveness and manufacturing systems design.
Integral to all four years of the program is a "design and build" educational philosophy incorporated through extensive laboratory and project activities as preparation for professional practice. Students engage in design at all levels of the curriculum. At each level, they must realize their designs and proceed with testing, validation, and redesign. This approach allows students to experience many real-world constraints such as project economics, project planning and scheduling, environmental considerations, manufacturability/producibility of the designs, laboratory and product safety, and product reliability.
Accreditation
The B.S.E. product design and manufacturing engineering program is accredited by the Engineering Accreditation Commission of ABET, www.abet.org.
Program Educational Objectives
Graduates of the product design and manufacturing engineering program are expected within a few years of graduation to
- demonstrate technical competency in their careers;
- function effectively in an industrial or academic environment;
- engage in professional development; and
- shape their professions and societies.
Student Outcomes and Assessment
The graduate will demonstrate an ability to
- identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics;
- apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental, and economic factors;
- communicate effectively with a range of audiences;
- recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts;
- function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives;
- develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions; and
- acquire and apply new knowledge as needed, using appropriate learning strategies.
Degree Requirements
Product design and manufacturing (PDM) engineering program students must complete all requirements for the B.S.E. degree including the general education requirements, the foundations of engineering courses, cooperative education, the engineering design Capstone, and the following manufacturing engineering courses.
PDM majors must complete an emphasis. Four emphases are offered, general, design, manufacturing systems, and robotics and controls. Each emphasis has required courses and elective courses that are chosen from an approved list. The design, manufacturing systems, and robotics and controls emphases have three required emphasis classes.
Emphases
Product design engineers are responsible for the process of creating and developing new products. They research and develop ideas and processes for new products, improve the performance and design of existing products, and plan production and manage production facilities.
Required For All Emphases
- EGR 301 - Analytical Tools for Product Design (4 credits)
- EGR 345 - Dynamic System Modeling and Control (4 credits)
- EGR 362 - Thermal and Fluid Systems (4 credits)
- EGR 367 - Manufacturing Processes (3 credits)
- EGR 368 - Manufacturing Processes Laboratory (1 credit)
- EGR 440 - Introduction to Production (3 credits)
General Emphasis
The general emphasis provides a student with an overview of knowledge and skills required to transform a societal need into a finished product for a price that people in the intended market are willing to pay.
Required Courses:
Electives (choose three):
- EGR 311 - Intermediate Computer Aided Design and Manufacturing (3 credits)
- EGR 312 - Dynamics (3 credits)
- EGR 329 - Introduction to Finite Element Analysis (3 credits)
- EGR 352 - Kinematics and Dynamics of Machinery (4 credits)
- EGR 403 - Medical Device Design (3 credits)
- EGR 404 - Polymer Science and Processing (4 credits)
- EGR 405 - Materials Failure Analysis and Selection (3 credits)
- EGR 409 - Machine Design II (4 credits)
- EGR 413 - Materials for Energy Storage (3 credits)
- EGR 441 - Engineering Economics, Quality Control, and Manufacturing Operations (4 credits)
- EGR 445 - Robotic Systems Engineering (4 credits)
- EGR 447 - Engineering Mechanics of Human Motion (3 credits)
- EGR 453 - Biomedical Materials (3 credits)
- EGR 463 - Alternative Energy Systems and Applications (4 credits)
- STA 315 - Design of Experiments (3 credits)
Design Emphasis
The design emphasis allows students to focus on combining their engineering skills and knowledge with their creativity to create innovative products that will succeed in the global marketplace. Students learn how to integrate design methods such as gathering customer requirements, establishing specifications, generating alternative concepts, estimating feasibility, concept selection, embodiment design, design refinement, prototyping, and project planning into a coherent product development strategy.
Required Courses:
- EGR 329 - Introduction to Finite Element Analysis (3 credits)
- EGR 401 - Advanced Product Design (4 credits)
- EGR 405 - Materials Failure Analysis and Selection (3 credits)
Electives (choose two):
- EGR 311 - Intermediate Computer Aided Design and Manufacturing (3 credits)
- EGR 326 - Embedded System Design (4 credits)
- EGR 403 - Medical Device Design (3 credits)
- EGR 404 - Polymer Science and Processing (4 credits)
- EGR 409 - Machine Design II (4 credits)
- EGR 441 - Engineering Economics, Quality Control, and Manufacturing Operations (4 credits)
- EGR 453 - Biomedical Materials (3 credits)
- STA 315 - Design of Experiments (3 credits)
Manufacturing Systems Emphasis
The manufacturing systems emphasis allows students to focus on the design, operation, and integration of systems for the production of high-quality, economically competitive products. These systems include computer networks, robots, machine tools, and materials-handling equipment. Students will learn engineering economics, strategic decision-making based on principles of operations management, quality control concepts, method engineering, and process improvement techniques to accomplish the goal of designing and managing world-class manufacturing systems.
Required Courses:
- EGR 404 - Polymer Science and Processing (4 credits)
- EGR 441 - Engineering Economics, Quality Control, and Manufacturing Operations (4 credits)
- EGR 450 - Manufacturing Control Systems (4 credits)
Electives (choose two):
- EGR 413 - Materials for Energy Storage (3 credits)
- EGR 445 - Robotic Systems Engineering (4 credits)
- MGT 337 - Supply Chain Management (3 credits)
- STA 314 - Statistical Quality Methods (3 credits) OR STA 315 - Design of Experiments (3 credits)
Robotics and Controls Emphasis
The robotics and controls emphasis allows students to focus on the design and development of modern, automated systems to manufacture products as well as to perform tasks that are dangerous, repetitive or time consuming for humans. Students learn how to integrate many types of sensors, actuators, and computer control techniques to design and build these systems.
Required Courses:
- EGR 409 - Machine Design II (4 credits)
- EGR 445 - Robotic Systems Engineering (4 credits)
- EGR 450 - Manufacturing Control Systems (4 credits)
Electives (choose two):
- EGR 312 - Dynamics (3 credits)
- EGR 352 - Kinematics and Dynamics of Machinery (4 credits)
- EGR 405 - Materials Failure Analysis and Selection (3 credits)
- EGR 441 - Engineering Economics, Quality Control, and Manufacturing Operations (4 credits)
Suggested Order of Coursework
Final Three Years
Third Academic Semester
Fall:
- EGR 209 - Mechanics and Machines (4 credits)
- EGR 226 - Microcontroller Programming and Applications (3 credits)
- EGR 227 - Microcontroller Programming and Applications Lab (1 credit)
- EGR 289 - Engineering Professionalism (1 credit)
- MTH 203 - Calculus III (4 credits)
- PHY 231 - Principles of Physics II (5 credits)
Fourth Academic Semester
Winter:
- EGR 214 - Circuit Analysis I (3 credits)
- EGR 215 - Circuit Analysis I Lab (1 credit)
- EGR 250 - Materials Science and Engineering (3 credits)
- EGR 251 - Materials Laboratory (1 credit)
- EGR 309 - Machine Design I (3 credits)
- EGR 310 - Machine Design I Laboratory (1 credit)
- MTH 302 - Linear Algebra and Differential Equations (4 credits)
First Co-op Semester
Spring/Summer:
- General education
- EGR 290 - Engineering Co-op 1 (3 credits)
Fifth Academic Semester
Fall:
- EGR 301 - Analytical Tools for Product Design (4 credits)
- EGR 345 - Dynamic System Modeling and Control (4 credits)
- EGR 367 - Manufacturing Processes (3 credits)
- EGR 368 - Manufacturing Processes Laboratory (1 credit)
- General education
Second Co-op Semester
Winter:
- General education
- EGR 390 - Engineering Co-op 2 (3 credits)
Sixth Academic Semester
Spring/Summer:
- General education
- ECO 210 - Introductory Macroeconomics (3 credits) OR ECO 211 - Introductory Microeconomics (3 credits)
- EGR 362 - Thermal and Fluid Systems (4 credits)
- EGR 440 - Introduction to Production (3 credits)
- Product design and manufacturing engineering elective
Third Co-op Semester
Fall:
- General education
- EGR 490 - Engineering Co-op 3 (3 credits)
Seventh Academic Semester
Winter:
- Product design and manufacturing engineering elective
- EGR 401 - Advanced Product Design (4 credits)
- EGR 450 - Manufacturing Control Systems (4 credits)
- EGR 485 - Senior Engineering Project I (Capstone) (1 credit)
The prerequisites for EGR 485 are acceptance into the B.S.E. degree program and completion of the prerequisite courses listed under the student's engineering major.
For the product design and manufacturing engineering major, these prerequisite courses are: EGR 301, EGR 345, EGR 367, and EGR 368.
Eighth Academic Semester
Spring/Summer:
- Product design and manufacturing engineering elective
- General education
- General education
- EGR 486 - Senior Engineering Project II (Capstone) (2 credits)