Design and Manufacturing Program

 

Time is Right

The global competitiveness and rapidly evolv­ing technologies in computer-aided design and manufacturing have mandated that graduate curric­ula in mechanical engineering reflect these changes. The continuous pursuit of quality products and shorter product cycles has spurred innovation in product design and manufacturing technologies in recent years. The graduate emphasis in design and manufacturing, initiated in the Department of Mechanical Engineering, incorporates an interdisci­plinary approach to design and manufacturing.

 

 

Intended Audience

This program is specifically designed to attract both full-time and part-time students who may be employed in industry, government, and research institutions. It is also appropriate for engineers who are re-directing their career paths in an ever-chang­ing economic environment.

 

 

Primary Features of Program

 

  Core courses specifically designed to expose stu­dents to a design methodology that intimately involves consideration of the manufacturing pro­cesses.

  A large variety of non-core courses from ME, ENMA, and CS to offer enough flexibility to enable students to chose a study path that matches their own academic and professional goals.

  One-credit hour courses taught by guest instruc­tors from industry.

  Hands-on practice with rapid prototyping pro­cess, injection molding process and design for manufacturing (DFM) software

  Opportunities for co-operation programs

 

 

Engineering Software Applications

This course introduces various engineering software that are useful for engineering communi­cation, analysis and design. Particular software included are MSC/NASTRAN for structural analy­sis and design optimization, P3/PATRAN for graphic applications and STAR-CD for computa­tional fluid dynamics. Design projects will be assigned in the class for students to practice those software

 

 

 

Concurrent Engineering

This course introduces the principles of Con­current Engineering to the various stages in a typi­cal design process ranging from conceptual design to parametric designs. The major emphasis of this course is on the integration of the design and design for manufacturing (DFM) materials. Hands-on experience will be based on rapid prototyping work and software applications of DFM applications to injection molded parts and stamped parts.

Project Course

This course is reserved for students who have an industrial sponsor or a faculty advisor with a funded project. Examples of past projects are digi­tal image processing of solid objects, telephone pole crawler, and pin pick-up mechanism for bowl­ing alleys.

 

Facilities

Old Dominion University operates an IBM-RS 600/590 workstation, which has vector processing capabilities, and clusters of P.C.’s in various labora­tories throughout campus. In addition, the ME department has a SUN network consisting of sev­eral SUN workstations, IRIS graphics stations, and numerous microcomputers. The campus-wide com­putational facilities are interconnected through a high speed network connection (0<3). These facili­ties are also linked to supercomputers at both NASA Langley and Ames Research Centers and other supercomputing facilities throughout the country.

The Mechanical Engineering Department oper­ates a materials laboratory, a fluid mechanics labo­ratory, a CFD laboratory, a solid mechanics laboratory, and a composite materials and experi­mental mechanics laboratory. The department maintains a CAD/CAE laboratory with IBM RS/ 6000 workstations and Textronix graphics termi­nals. The College of Engineering and Technology also maintains a controls laboratory, a robotics lab­oratory, and a product/process laboratory equipped with a laser scanner for solid object,  a rapid proto­typing machine, and software for design for manu­facturing and for process modeling.

 

Admission Policy

The program is tailored for those who have an undergraduate degree in Mechanical Engineering or equivalent. Students with degrees in other engi­neering or scientific disciplines may be required to take prerequisite courses. Applications with degrees from accredited programs are required to have a minimum GPA of 3.0 for regular admission. GRE general test results are required of all appli­cants, and a minimum TOEFL score of 550 is required of all international students. Limited financial aid awards are available to qualified appli­cants.

 

Contact

Dr. Jen-Kuang Huang,

Graduate Program Director

(757) 683-3734; e-mail: jhuang@odu.edu

 

Degree Requirements

The program offers a Master’s of Engineering degree in Mechanical Engineering with specializa­tion in design and manufacturing disciplines. The program requires 30 credit hours of courses after the B.S. degree in mechanical engineering, or equivalent, and may be completed in one calendar year (12 months). Students must take four core courses and six non-core courses to complete the 30-hour requirement. Most of courses are conveni­ently offered in the evening or on TV. The four mechanical engineering core courses developed specifically for this program are

1.   Applied Mathematics for Design and Manufac­turing

2.   Advanced Design

3.   Concurrent Engineering

4.   Manufacturing Automation

The remaining six non-core courses can be taken from, but not limited to, the following approved list of courses:

ME (Mech. Eng.)                            ENMA (Eng. Mgt.)

 

Adv. Dynamics                          Intelligent Manuf.  Sys.

Adv.Dyn. and Control              Production Engineering

Advanced Materials                 Quality Control Engr

Composite Materials                 Reliability and Maint

Computational Methods II      Robust Engr. Dsgn

Engineering Software Appl.

Corrosion

Design Optimization                          CS (Comp. Sci.)

Computer-Integrated Man.

Experimental Stress Analysis    Advanced Computer

Fatigue and Fracture                   Artificial Intelligence

Finite-Element Methods           Computer-Aided Design

Kinematic Analys. of Mechs     Computer Graphics  .

Kinematic Design/Synthesis      Robotics

Mech. Behavior of Matrl

Non-Destructive Testing

Optimal Control

Projects

Theory of Vibrations