Department of Manufacturing & Mechanical Engineering Technology / Packaging Science

BS in Manufacturing Engineering Technology

Overview

Manufacturing Line

The present shortage of qualified manufacturing engineers and technologists is between 50,000 and 100,000 people—and the need is increasing. It is also estimated that between 20,000 and 30,000 new jobs are created in manufacturing engineering every year. Industrial productivity and technological innovations are driving this demand. The manufacturing engineering technology program prepares students to meet the demand for personnel well-versed in the new manufacturing technologies, which include computer-aided design, computer numerical control, microprocessor controls, robotics, computer-aided manufacturing, flexible manufacturing systems, assembly automation, computer-integrated manufacturing, and electronics manufacturing.

The goal of the manufacturing engineering technology program is to prepare individuals for professional employment in the fields of product design, development, and manufacturing. The program is designed to provide the skills necessary for applying emerging manufacturing technologies. A cooperative education program enhances these skills by allowing students to gain valuable experience working in the manufacturing industries. Throughout the academic program, a significant amount of hands-on laboratory experience in manufacturing is provided. The BS in Manufacturing Engineering Technology program is accredited by the Technology Accreditation Commission of ABET http://www.abet.org .

Types of jobs a person might have in this field

  • Project Engineer
  • Project Manager
  • Electrical Engineer
  • Design Engineer
  • Applications Engineer
  • Technical Sales

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Typical Course Sequence

For Freshmen entering 9/1/2006 and After

Please note: This sequence of courses assumes that the first year student has no transfer credit. Many students enter with credit from other colleges, AP or Project-Lead-The-Way credit from high school, or other related credit. A student’s actual program will be determined by advisement.

Those who transfer with an associate degree or equivalent will find that they will have for most of the first and second year courses and a few of the third year courses. Their program will be determined by advisement.

  Qtr. Cr. Hrs.
First Year
Introduction to Materials Technology 0610-211 3
Materials Testing 0610-304 1
Manufacturing Processes I 0617-220 4
Calculus for Engineering Technology 1016-231 4
First-Year Enrichment 1105-051, 052 2
Solid Modeling and Design 0617-262 4
Manufacturing Processes II 0617-420 4
Calculus for Engineering Technology II 1016-232 4
Design Dimensioning and Tolerancing 0610-220 4
Differential Equations for Engineering Technology 1016-304 4
College Physics I, Lab 1017-211, 271 4
Liberal Arts* 12
Second Year
Introduction to Statics 0610-302 4
Pneumatics and Hydraulics 0610-305 4
Data Analysis I, Lab 1016-319, 379 6
College Physics II, III, Labs 1017-212, 213, 272, 273 8
Electrical Principles for Design I 0609-411 4
Strength of Materials 0610-303 4
Liberal Arts* 4
Wellness Education† 0
Principles of Mechanical Design I 0610-315 4
Computational Methods for Engineering Technology 0610-309 1
Ethics Elective 4
Effective Technical Communication 0535-403 4
Free Elective 4
Third Year
Cooperative Education Preparation 0606-099 0
Introduction to Electronics Packaging, Lab 0617-455, 457 5
Robots in Manufacturing 0617-485 4
Technical Programming 0618-231 4
Engineering Economics 0617-436 4
Computer Numerical Control 0617-471 4
Chemistry and Chemistry Lab 1011-205, 271 4
Free Electives 4
Liberal Arts* 4
Cooperative Education (2 quarters) Co-op
Introduction to Electronic Packaging 0617-455 4
Electronics Packaging Lab 0617-457 1
Fourth Year
Production and Operations Management I 0617-440 4
Materials Technology 0610-416 4
Controls for Manufacturing Automation 0617-470 3
Production and Operations Management II 0617-441 4
Liberal Arts* 12
Mechanical Engineering Technology Lab II 0610-409 2
Tool Engineering 0617-472 4
General Elective 4
Cooperative Education (2 quarters) Co-op
Fifth Year
Computer-Aided Manufacturing 0617-475 4
Technical Electives 8
Process Design 0617-510 4
Liberal Arts* 12
Free Elective 4
Cooperative Education (1 quarter) Co-op
 
Total Quarter Credit Hours 196

*Please see Liberal Arts General Education Requirements for more information.

Please see Wellness Education Requirement for more information.

Students are required to choose two out of the following three courses to fulfill the math/science electives requirement: College Physics III (1017-213), Data Analysis II (1016-320), or Microbiology (1004-210).

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Course Descriptions

0617-220 Manufacturing Processes I

This course will focus on the understanding and application of basic manufacturing processes. Students will be challenged to discover and learn how typical industrial piece parts and assemblies are constructed. Topics include material properties, powder metal processes, bulk deformation processes, metal removal processes, and sheet metal forming processes. Class 3, Lab 3, Credit 4

0617-262 Solid Modeling and Design

This course introduces students to the engineering design process and solid modeling. Students learn visualization skills, parametric solid modeling and creation of engineering drawings which meet industrial drafting standards. Design projects are used to reinforce concepts and provide practical design experience. Class 3, Lab 2, Credit 4

0617-271 Fundamentals of Solid Modeling

This course is intended for transfer students who have a background in a solid modeling package other than is used in 0610-220. Students will learn the fundamentals of Solidworks, in preparation for taking 0610-220. (Permission of instructor) Lab 2, Credit 1

0617-410 Computers in Manufacturing

A course dealing with concepts in data acquisition and control and application of computers for manufacturing process integration. This course will introduce the concepts in digital and hexadecimal number systems, digital logic, parallel and serial communication, microcomputer architecture, sensors and actuators and real-time programming. Concepts in networking and distributed systems will also be introduced. Students will use C or C++ programming language to control experimental setups in the laboratory. (C or C++ Programming) Class 3, Lab 2, Credits 4

0617-420 Manufacturing Processes II

This is the second of two courses that teaches manufacturing processes. The first covers basic traditional processes and this course goes on to cover what are commonly referred to as nontraditional manufacturing methods. Within this category are processes such as electrical discharge machining, water jet machining, photochemical machining, ultrasonic machining, lasers, plasma cutting, rapid prototyping, etc. This is a project-based course; the student will individually, or in a team, investigate one of the processes in depth, and how it is applied to a specific part. (0617-220) Class 4, Credit 4

0617-436 Engineering Economics

A study of techniques required to make economic decisions. Topics covered in the course include cash flow analysis, present worth analysis, annual worth analysis, rate of return evaluations, benefit cost analysis, break even analysis, replacement analysis, bonds, the effect of tax on cash flows, and sensitivity analysis. Class 4, Credit 4

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0617-440 Productions and Operations Management I

This course in production and operations management focuses on operations terminology, operations strategy, design for manufacturing, project planning/ control, value analysis, and statistical quality control. (1016-319) Class 4, Credit 4

0617-441 Production and Operations Management II

This course is designed to provide the student with knowledge of the latest theories and practices of operations management employed by world class manufacturing organizations. Topics include TQM, MRP, JIT, lean manufacturing, six sigma, theory of constraints, work simplification and operations research. Class 4, Credit 4

0617-455 Introduction to Surface Mount Electronics

This course will provide a thorough understanding of the technology, components, equipment, design and manufacturing process for surface mount electronics manufacturing. As an introductory course, it will provide students with a strong foundation needed for advanced work in surface mount technology (SMT). The laboratory demonstrations will provide the students an orientation and familiarization of the manufacturing equipment and process for printed circuit board assembly Class 4, Credit 4

0617-456 Advanced Concepts in Electronic Packaging

This course deals with advanced topics in surface mount electronics packaging. Topics include: electronics packaging standards, single-chip and water level packaging technologies, advanced passive component technology, high density interconnection and microvia technology, thermal management, thermomechanical behavior of packaging, solder metallurgy and joint formation for packaging, failure modes, mechanisms and reliability testing. (0617-455) Class 2, Lab 2, Credit 4

0617-457 Electronics Packaging Lab

This laboratory class will provide the hands-on training in surface mount electronics packaging. Students will learn to set-up and operate production scale equipment, understand process parameters and their influence and characterize the entire PCB assembly process. Lab experiments will also include analytical evaluation of raw materials such as solder paste viscosity, tackiness, wetting, component and board solder ability, solder balling, etc. Class 0, Lab 2, Credit 1

0617-460 Computer-Aided Design

CAD is introduced as an integral part of the computer integrated manufacturing process. Basic concepts of CAD software and hardware, interactive graphics, CAD Applications, CAD Economics and the interrelationship of CAD and CAM are discussed. The course work gives the student the skills needed to create 3D Solid Models using a Parametric 3D Solid Modeling application. Emphasis is placed on laboratory work such as creating Solid Models and Assemblies containing Solid Models with limited view creation and dimensioning. Class 4, Credit 4

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Transfer Course Sequence

Typical Course Sequence: Transfer Students

(Actual Sequence of Courses will be determined by working with the Program Advisor or Program Chair Thaddeus Hopkins)

Students transferring from other programs or with a variety of backgrounds will need to have their program determined by advisement.

First Year
Fall Winter Spring Summer
0606-099 Co-op Preparation 0617-471 Computer Numerical Control Co-op Co-op
0535-403 Effective Technical Communication 0617-455 Introduction to Surface Mount Electronics
1019-421 Calculus for Technologists I 1019-422 Solutions to Engineering Problems
1011-205 Chemistry & Lab 0617-xxx Electronics Packaging Lab
0610-416 Materials Technology Liberal Arts Core
0610-409 Mechanical Engineering Technology Lab II

Second Year
Fall Winter Spring Summer
0617-470 Controls for Manufacturing Automation Co-op 0617-436 Engineering Economics Co-op
0618-231 Technical Programming I 0617-441 Production & Operations Management II
0617-440 Production & Operations Management I 0617-472 Tool Engineering
0617-485 Robots in Manufacturing Liberal Arts Conecntration

Third Year
Fall Winter Spring Summer
Co-op 0617-475 Computer Aided Manufacturing 0617-510 Process Design
Liberal Arts Core 0520-501 Liberal Arts (Senior Seminar)
Technical Concentration Technical Concentration
Liberal Arts Concentration Liberal Arts Concentration

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Program Accreditation and Educational Objectives

The Bachelor of Science in Manufacturing Engineering Technology program is accredited by the Technology Accreditation Commission of the Accreditation Board for Engineering and Technology (ABET), http://www.abet.org .

Program education objectives

Graduates from RIT's Manufacturing Engineering Technology program will demonstrate:

  1. A professional work ethic, a commitment to lifelong learning, quality and continuous improvement through the clear ability to assume increasing levels of technical and/or management responsibility.
  2. Leadership and participation in teams thatact as change agents and innovators in product degisn and manufacturing related organizations.
  3. The ability to drive the design of manufacturable products, design effective and efficient new production processes and improve the performance of existing operations.
  4. Effective communication.

Program outcomes

Graduates from the Electrical/Mechanical Engineering Technology Program will demonstrate:

  1. The ability to apply knowledge, techniques, skills, and modern tools of manufacturing technology listed below to the solution of manufacturing problems:
    1. A1. Materials
    2. A2. Manufacturing Processes
    3. A3. Quality
    4. A4. Tooling
    5. A5. Automation
    6. A6. Production Operations
    7. A7. Maintenance
    8. A8. Industrial Organization and Management
    9. A9. Statistics
    10. A10. Financial Measures
    11. A11. Systems Integration
  2. The ability to apply current knowledge and adapt to emerging applications of mathematics, science, engineering, and technology.
  3. The ability to formulate, conduct, analyze, and interpret experiments and apply experimental results to improve processes.
  4. The ability to apply creativity in the design of manufacturing systems, components, and processe
  5. The ability to function effectively in teams.
  6. The ability to identify, analyze, and solve technical problems.
  7. Effective communication.
  8. Recognition of the need for, and the ability to engage in, life long learning.
  9. Knowledge of ethical and social responsibility expected of professionals working in the Manufacturing Engineering Technology field.
  10. Respect for diversity and a knowledge of contemporary professional, societal, and global issues.
  11. Commitment to quality, timeliness, and continuous improvement.
  12. Competence in the use of the computer as a problem solving and communications tool.
  13. The ability to apply project management techniques to the completion of lab assignments and projects.
  14. Successfully completing a comprehensive design project that demonstarates the ability to improve the manufacturability of product designs and design effective new manufacturing/assembly processes and procedures.
  15. Meaningful work experience in the manufacturing engineering technology field.
  16. The ability to articulate the economic and organizational importance of manufacturing to companies, individuals and the community.

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