Mechanical Engineering

Professor R. Danner Friend (Chair); Associate Professor Karen Supan; Assistant Professors Carolina Payares-Asprino, Scott Smith, and Charles White; Lecturer Martin Rolland; Donald Wallace Visiting Assistant Professor Shazali Osman

Mechanical engineering, the broadest of the engineering professions, provides an opportunity for a wide range and variety of services, work, and interests. The major branches of mechanical engineering include structural/solid mechanical systems and thermal/fluid systems. The mechanical engineer deals with the conversion of energy, the design of machines, the instrumentation and control of processes, and the control of machines and their impact on the environment. Conventional fields of interest are transportation (automobiles, aircraft, urban and mass transit); machines and systems for electrical power production from wind, water, coal, oil, and gas; heating and air conditioning of buildings; and the complex machinery and methods of making steel, plastics, paper products, etc.

Mission:

The Mission of the Mechanical Engineering Program is to:

  • Prepare students to excel in mechanical engineering and related fields.
  • Provide modern, fundamental, practice-oriented education in the mechanical engineering field.
  • Foster creativity and critical thinking in problem solving and motivate students to consider the societal consequences of their work.
  • Enable students to be leaders in their profession, community, and the nation.
     
Goals:

The Program Educational Objectives of the Mechanical Engineering Program are to produce graduates who, within two to four years after graduation, are able to:

  • Apply engineering principles and modern tools to conceive, analyze and implement engineering solutions.
  • Hold positions of progressive responsibility leading teams in a variety of mechanical engineering fields.
  • Work as professionals in industrial, military, government, public works, and academic settings while maintaining a high awareness and responsibility regarding ethical, safety, environmental, social, economic, and global issues.
  • Apply effective communication skills to interact and collaborate with teams comprised of diverse individuals, technical disciplines and management levels.
  • Maintain an ongoing intellectual curiosity while actively engaged in continuing education and professional development throughout life.

Outcomes:

At the time of graduation, students in the Mechanical Engineering Program are expected to have developed and demonstrated 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.
  • Acquire and apply new knowledge as needed, using appropriate learning strategies.

Careers for this Major:
  • Product Design
  • Automotive engineering
  • Bio-engineering (artificial body organs and medical devices)
  • Aerospace (spacecraft and rockets)
  • Applications of electronics to the control of machines and to laboratory instruments
  • Robotics
  • Heating, ventilation, and air conditioning
  • Manufacturing
  • Energy and power including renewable energy (wind, solar, etc.)
  • Control of environmental pollution for automobiles and industry

The American Society of Mechanical Engineers (ASME International) is the largest professional organization devoted specifically to Mechanical Engineering; serving the general Mechanical Engineering profession and a variety of associated fields. To learn more about employment opportunities in Mechanical Engineering, please visit http://jobboard.asme.org.

Accreditation:

The Mechanical Engineering Program is accredited by the Engineering Accreditation Commission (EAC) of ABET, http://www.abet.org.

Mechanical Engineering (B.S.) – Curriculum Map 2020-2021 Catalog

New PlanGrids
Freshman
Fall Cr. Comp. Spring Cr. Comp.
CH 103 General Chemistry I (General Education Lab Science)4CH 104 General Chemistry II (General Education Lab Science)4
EG 109 Introduction to Engineering I3EN 102 Composition and Literature II3
EN 101 Composition and Literature I3EG 110 Introduction to Engineering II3
MA 121 Calculus I4General Education History/Literature/Arts & Humanities/Social Science3 
   MA 122 Calculus II (General Education Math)4
      
Fall Semester Total Cr.: 14Spring Semester Total Cr.: 17
Sophomore
Fall Cr. Comp. Spring Cr. Comp.
EE 204 Electrical Circuits I3EE 240 Electrical Concepts and Applications3
EG 201 Engineering Mechanics-Statics3EG 202 Engineering Mechanics-Dynamics3
MA 223 Calculus III (General Education Math)4EG 206 Thermodynamics I3
ME 211 Mechanical Engineering Tools I2MA 224 Differential Equations4
PS 211 University Physics I4PS 212 University Physics II4
      
Fall Semester Total Cr.: 16Spring Semester Total Cr.: 17
Junior
Fall Cr. Comp. Spring Cr. Comp.
EG 203 Materials Science3EG 303 Fluid Mechanics3
EG 301 Mechanics of Materials3ME 356 Manufacturing Processes4
ME 307 Thermodynamics II3ME 368 Design of Machine Elements3
ME 311 Mechanical Engineering Tools II2ME 370 Mechanical Systems Design3
ME 363 Kinematic and Kinetic Sythesis3ME 382 Mechanical Engineering Laboratory II1
ME 381 Mechanical Engineering Laboratory I2General Education History/Literature/Arts & Humanities/Social Science3 
   General Education Leadership1-3 
      
Fall Semester Total Cr.: 16Spring Semester Total Cr.: 18-20
Senior
Fall Cr. Comp. Spring Cr. Comp.
EE 321 Embedded Systems4ME 468 Mechanical Engineering Design II (Capstone)3
EG 044 Conference0EG 450 Professional Issues (General Education Ethics)3
ME 435 Mechanical Control Systems3Math or Science or Engineering Elective 13 
ME 465 Heat Transfer3Mechanical Engineering (ME) Elective 23 
ME 467 Mechanical Engineering Design I (Capstone)3General Education History/Literature/Arts & Humanities/Social Science3 
ME 487 Mechanical Engineering Laboratory III2   
General Education History/Literature/Arts & Humanities/Social Science3    
      
Fall Semester Total Cr.: 18Spring Semester Total Cr.: 15
TOTAL CREDITS FOR THIS MAJOR: 131-133

An undergraduate student, who has completed all degree requirements except for attaining a 2.00 average, must take at least 50 percent of all subsequent course work in technical material (subject to approval by the Director of the David Crawford School of Engineering).

 
 

Courses

ME 188 No Norwich Equivalent 6 Cr.

ME 211 Mechanical Engineering Tools I 2 Cr.

An extension of EG 109 with a more in-depth treatment of 3-D solid model generation including extrusion, revolving, sweeping and lofting. Further development and modification of 3-D solid drawings. Lab 3 hours. Prerequisite: EG 109.

ME 288 No Norwich Equivalent 6 Cr.

ME 307 Thermodynamics II 3 Cr.

Applications of thermodynamics to power and refrigeration cycles, combustion mechanisms, mixture and flow processes. Development of thermodynamic relationships and equations of state. Classroom 3 hours. Prerequisite: EG 206.

ME 311 Mechanical Engineering Tools II 2 Cr.

An extension of ME 211 with additional application of computer based design and analysis methods. An emphasis will be placed on design for manufacturing and other tools appropriate to the mechanical engineering profession. Lab 3 hours. Prerequisite: ME 211.

ME 356 Manufacturing Processes 4 Cr.

A study of the principles of manufacturing processes. Metal removal, casting, joining and deformation processes are covered as well as introductions to numerically controlled machinery, computer-aided manufacturing, rapid prototyping, robotics, computer integrated manufacturing and modern manufacturing systems. Classroom 3 hours, lab 3 hours. Prerequisite: ME 311, EG 203.

ME 363 Kinematic and Kinetic Sythesis 3 Cr.

A study of the principles of motion and the forces necessary to cause, and be created by motion. Applications to the design of typical machine elements such as gears, linkages and cams. Classroom 3 hours. Prerequisites: EG 202, MA 223.

ME 368 Design of Machine Elements 3 Cr.

A study of the application of the theories of mechanics and stress analysis to the design of fundamental machine parts. Some of the topics covered are shafts, springs, screws, belts, gears, rivets, bearings and lubrication. Classroom 3 hours. Prerequisite: EG 301.

ME 370 Mechanical Systems Design 3 Cr.

An introduction to the methodology of design including problem definition, generation and evaluation of alternatives, and design completion. Emphasis is placed on creativity, feasibility, and the effect of economic and societal factors on alternative selection. Goals are achieved through the use of case studies and small projects. Classroom 3 hours. Prerequisite: junior standing or higher.

ME 381 Mechanical Engineering Laboratory I 2 Cr.

A study of the fundamentals of mechanical and electronic instruments and their use in measurement systems to obtain data on temperature, pressure, displacement, acceleration, and other physical variables. Introduction to experimental methods and procedures, reduction of data to significant form, and the organization of experimental results in written reports. Lecture 1 hour, lab 3 hours. Prerequisite: EE 204.

ME 382 Mechanical Engineering Laboratory II 1 Cr.

Application of instrumentation to observations of gas and liquid behavior, thermo-dynamic and mechanical aspects of machines and devices. Dynamic and transient considerations in instruments, physical systems, and experimental data. Laboratory 3 hours. Prerequisite: ME 381.

ME 388 No Norwich Equivalent 6 Cr.

ME 435 Mechanical Control Systems 3 Cr.

Synthesis and analysis of mechanical control systems with feedback. Use of linearization techniques and Laplace Transform methods of analysis. Techniques for determining system stability. Emphasis is placed on operational characteristics of components and their effect on system design. Computer simulation of system operation. Classroom 3 hours. Prerequisites: MA 224, EG 202.

ME 465 Heat Transfer 3 Cr.

A study of the fundamentals of heat transfer by conduction, radiation, and convection. Steady and unsteady state conduction. Study will include boundary layer theory, internal and external convective flows, two-phase flow, and heat exchange design theory. Classroom 3 hours. Prerequisites: EG 206, EG 303, MA 224.

ME 467 Mechanical Engineering Design I 3 Cr.

A capstone design project is taken up to the point of prototype construction, testing and hardware specification. The specific skills and knowledge needed by practicing engineers in the product realization process are emphasized and developed. Classroom 3 hours. Prerequisite:ME 370; Senior Standing.

ME 468 Mechanical Engineering Design II 3 Cr.

Design completion of the capstone project initiated in ME 467 including hardware specification, instrumentation, laboratory testing, data reduction, and evaluation. Written design report required with oral presentation and defense. Prerequisite: ME 467.

ME 487 Mechanical Engineering Laboratory III 2 Cr.

A continuation of the Mechanical Engineering laboratory sequence with experiments stressing the performance characteristics of heat power equipment and the application of theory learned in thermodynamics and fluid flow. Classroom 1 hour, laboratory 2 hours. Prerequisite: EG 303; ME 307, or concurrent enrollment.

ME 488 No Norwich Equivalent 6 Cr.

ME 490 Advanced Topics 3,4 Cr.

A course that provides specific work in an area of the instructor's special competence and indicated student interest. An extension of basic principles to applied areas such as HVAC, heat transfer, thermodynamics, stress analysis, environmental control, turbo-machinery, propulsion systems and aerodynamics. Classroom or seminar, 1-3 hours. Prerequisite: Senior standing. (Occasionally).