College of Engineering and Science
Office: Engineering 124
Dean: Leo E. Hanifin
Associate Dean: Arthur C. Haman
Associate Dean: Kenneth L. Henold
Director, Transfer Programs: Carolyn J. Rimle
Director, Pre-College Programs: Daniel Maggio
Director, International Programs: Diane R. Thompson
Director, Manufacturing Engineering Program: David G. Lee
Telephone: (313) 993-1216
Fax: (313) 993-1187
E-mail:clayvc@udmercy.edu
"Undergraduate education in science, mathematics, engineering and technology is a critical determinant of our national future." [National Research Council] Consistent with the College’s mission to serve society’s needs, the faculty are committed to provide an education that permits students to serve their chosen profession and the nation. To achieve this, a major portion of students’ studies consists of humanities and social science coursework that places their technical efforts in the proper historical, social and political contexts. Through this, graduates become productive entrepreneurs in a global society as engineers, scientists, mathematicians, physicians, dentists and educators. UDM students also have an opportunity to participate in the cooperative education program. For engineering students, co-op is required. Co-op plays an important role in developing the professional skills and experience necessary to succeed after graduation. UDM provides these educational opportunities in the heart of a dynamic and highly productive business, industrial and scientific community that is known as the automotive capital of the world.
Bioremediation, robotics, rapid prototyping, digital logic circuits, concurrent engineering, genetics, reaction injection molding, dynamic programming, white Gaussin noise channel, group technology, geometric tolerancing, DNA fingerprinting, tissue culture biotechnology, recombinant DNA techniques, polymers for imaging science and catalysis - these are just some of the exciting areas being addressed by students in the College of Engineering and Science. These are examples of the ever changing technologies that students learn for the 21st Century, preparing them to be change agents in the world.
Degrees & Programs
• Bachelor of Arts (Majors in Chemistry, Mathematics)
• Bachelor of Engineering
• Bachelor of Chemical Engineering
• Bachelor of Civil Engineering
• Bachelor of Electrical Engineering
• Bachelor of Manufacturing Engineering
• Bachelor of Mechanical Engineering
• Bachelor of Science (Majors in Biology, Chemistry, Biochemistry, Mathematics, Biology
— Secondary Education)
• Bachelor of Science in Computer Science
International Programs
The Mexican American Partnership (MAP) Program allows students to study their full junior year at Monterrey Technological University, Mexico’s premier technical program. There they learn to speak technical Spanish and learn, through experience, the customs and culture of Mexico. They then work one of their co-op periods in a Mexican industrial operation. By functioning in an international business environment, students learn the differences between U.S. and Mexican business practices.
The North American Design Institute has brought together companies and universities from three nations: the U.S., Canada and Mexico. In addition to working on international design teams which address differences in such areas as regulations and environmental practices, students participate in an exchange program that allows them to study at Ryerson Polytechnic University (Toronto) or Simon Fraser University (Vancouver) in Canada or Monterrey Tech or the University of Guadalajara in Mexico.
The Chinese American Partnership (CAP) Program was developed to meet the global needs of industry. Students in the CAP Program will study at Tsinghua University in China and participate in a cooperative education assignment with one of the corporate partner’s facilities in China.
Honors Program
Accreditation
Admission Criteria
First Year Students
The College of Engineering and Science does not admit those who, in its judgment, do not have the background to succeed in its academically demanding programs. Applicants should rank in the upper two-fifths of their high school classes and should have at least a B average in high school mathematics, sciences and English. Special note is taken of scores on the College Entrance Examination (SAT) or the American College Test (ACT).
Placement tests in English and mathematics are required of all first year applicants admitted into the College; a placement test in chemistry is also required of those applicants whose intended program calls for chemistry. Scores from these tests are used in determining the level of the first course in each of these disciplines.
Transfer Students
Transfer candidates may be accepted and given the same academic standing as students who have completed the corresponding courses at UDM. However, since the academic standing of each transfer applicant is appraised on an individual basis, such students are encouraged to consult with their faculty advisor or the associate dean. In addition to other University requirements, a substantial portion of the major program must be completed from approved major courses at UDM. For example, engineering majors must complete a minimum of 24 credit hours of departmental courses. Engineering courses that seem similar, but do not contain the required design content, will not be transferable to the program. Also, only classes having at least a grade of "C" or equivalent will transfer.
International Students
For students transferring into the college with prior college or university work, it is the policy that final official evaluation of transcripts for transfer credit will not be made until after the completion of one term of full-time academic work at the University. This means completion of a minimum of twelve (12) credit hours not including any American Language courses that may be required.
Advising
University Core Curriculum
Objective 1 - Communication Skills (6 hours)
CST 101 Fundamentals of Speech
ENL 131 Academic Writing [Note: All engineering and BS math and computer science students are also required to take ENL 303, technical writing.]
Objective 2 - Mathematical and Computer Skills (6/7 hours)
MTH 140 (or MTH 141 depending on program)
COMP SCI (Required course depends on program)
Objective 3 - Scientific Literacy (9 hours)
See requirements in general core outline.
At least two courses must be selected from Natural Science. In some programs, all courses may be selected from Natural Science.
Objective 4 - Meaning and Value (9 hours)
Same requirements as general core outline, Objective 4*
Objective 5 - Diverse Human Experience (9 hours)
A Two courses from 5A, 5B, 5C in general core outline
B One course from 5D (Comparative Experiences) in general core outline.
Objective 6 - Social Responsibility (5-6 hours)
A Ethics (E 100 or choose one course from any of the ETH courses -depending on program)
B Contemporary Socio-Political Problems
(E 301 - 303 or one course from the general core outline — depending on program)
*PHL 150 does not fulfill requirement for Engineering students.
Cooperative Education Programs
The sequence of co-op courses (10 cr.) applies for all engineering students:
|
CEC 300 |
Cooperative Education Preparation |
1 cr. |
|
CTA 301 |
Engineering Co-op Assignment |
2 cr. |
|
E 301 |
Professional World of Work I |
1 cr. |
|
CTA 302 |
Engineering Co-op Assignment |
2 cr. |
|
E 302 |
Professional World of Work II |
1 cr. |
|
CTA 303 |
Engineering Co-op Assignment |
2 cr. |
|
E 303 |
Professional World of Work III |
1 cr. |
Special Policies for the College of Engineering & Science
Classification of Students
Mathematics Attainment Rule
Graduation Requirements
All students are expected to complete all of the requirements of their respective curricula. Exceptions and course substitutions may be granted by the College Committee on Exceptions and Substitutions; decisions are based on a formal written request made by the student. Additional details are located in the Student Handbook of the College.
Engineering Programs
Engineering programs enable students to acquire a well developed engineering methodology which includes:
1. an orderly method of analytical thinking;
2. a thorough understanding of fundamental knowledge in science and mathematics;
3. an appreciation of the methodology of other disciplines;
4. a sensitivity to the connection between engineering and societal values;
5. an insight into creativity in design and general problem solving;
6. an ability to learn independently in order to continue to grow and keep abreast of expanding technology;
7. the self-confidence and ability to communicate effectively with others;
8. a philosophy of life that will enable them to enjoy the fruits of their labors, mature as educated persons, and provide for them a true identity as professionals in the field.
Engineering Core for all Engineering Majors
|
CHM 107 |
General Chemistry I |
3 cr. |
|
|
CHM 108 |
General Chemistry II |
3 cr. |
|
|
CHM 110 |
General Chemistry Lab I |
1 cr. |
|
|
MTH 141 |
Analytical Geometry/Calculus I |
4 cr. |
|
|
MTH 142 |
Analytical Geometry/Calculus II |
4 cr. |
|
|
MTH 241 |
Analytical Geometry /Calculus III |
4 cr. |
|
|
MTH 372 |
Differential Equations with Linear Algebra |
4 cr. |
|
|
MTH 427 |
Applied Probability and Statistics |
3 cr. |
|
|
PHY 160 |
General Physics I |
3 cr. |
|
|
PHY 161 |
General Physics Lab I |
1 cr. |
|
|
PHY 162 |
General Physics II |
3 cr. |
|
|
PHY 163 |
General Physics Lab II |
1 cr. |
|
|
E 100 |
Ethics and Politics of Engineering |
2 cr. |
|
|
E 105 |
Engineering Graphics and Design |
3 cr. |
|
|
E 204 |
Intro. to Engineering Computing |
3 cr. |
|
|
E 301-303 |
Professional World of Work I, II, III |
Total:3 cr. |
|
|
E 312 |
Statics |
3 cr. |
|
|
E 314 |
Fluid Mechanics 1 |
3 cr. |
|
|
E 315 |
Thermodynamics I 2 |
3 cr. |
|
|
E 317 |
Science of Materials 1 |
3 cr. |
|
|
E 320 |
Principles of Electrica l Engineering1 |
3 cr. |
|
|
E 321 |
Principles of Electrical Engineering Lab 1 |
1 cr. |
|
|
CEC 300 |
Cooperative Education Preparation |
1 cr. |
|
|
ENL 131 |
Academic Writing |
3 cr. |
|
|
ENL 303 |
Technical Writing |
3 cr. |
|
|
CST 101 |
Fundamentals of Speech |
3 cr. |
|
|
PHL 100 |
Introduction to Philosophy |
3 cr. |
|
|
University Core - Objective 4 |
6 cr. |
||
|
University Core - Objective 5 |
9 cr. |
||
1 not required of Electrical Engineering students
2 not required of Chemical Engineering students
Electives - flexibility and focus
The technical electives are selected from upper level courses in engineering, science, and mathematics; they must be approved by the student’s department. Level 100 and 200 courses may not be used as technical electives. Free electives may be selected from any of the University’s offerings above the 100 level. However, a lower level mathematics course may not be selected once a higher level course has been completed.
A suitable combination of these technical elective courses, together with the possible addition of pertinent humanities and social science courses, allows the student to achieve expertise in important fields. Groups of courses are available for specialization in the following engineering areas:
• Automotive
• Computer
• Environmental
• Geotechnical
• Manufacturing
• Mechanics
• Plastics and Polymers
• Process
• Signal and Systems
• Structures
Students should consult their departmental advisors, and the departmental program descriptions later in this catalog, regarding the courses recommended for each of these areas.
Chemical Engineering
Office: 246 Engineering, McNichols Campus
Chemical engineers improve the quality of life by synthesizing the products required by modern civilization. These products include plastics, metals, solid-state devices, pharmaceuticals and fibers. In addition, they work on projects to convert and store energy from coal, gas, and oil as well as solar sources. Chemical engineers work in diverse areas such as plastics recycling, pollution control, computer-aided design, and chemical process optimization. The current emphasis on converting energy and producing materials by the cleanest possible routes challenges the chemical engineer to design processes to recycle or reprocess essentially all materials, either before or after manufacture.
In addition to a strong core of engineering courses, specific interests of individual students are pursued through the selection of engineering and chemistry electives. UDM has designed model Chemical Engineering programs with three concentrations: Plastics and Polymer Engineering, Environmental Engineering, and Process Engineering.
While most chemical engineering graduates pursue careers as professionals in industry, increasing numbers progress from undergraduate work in chemical engineering to graduate work in other areas such as law, business and medicine, as well as engineering. The chemical engineering program is designed to develop a high level of computational, analytical and process design skills, and consequently, graduates are able to choose among numerous options after graduation.
UDM’s Chemical Engineering program is unique in its strong emphasis on polymer, plastics, environmental and computer-based technologies. Undergraduates are involved in applications of these technologies, often through co-op assignments, within industry. State-of-the-art computer facilities are available for use in the program.
In addition to the engineering core outlined previously, the chemical engineering program includes the following core courses:
|
|
|
Cr. |
Lec. |
Lab. |
|
CHE 326 |
Process Analysis |
3 |
3 |
0 |
|
CHE 338 |
Process Thermodynamics |
3 |
3 |
0 |
|
CHE 428 |
Equilibrium Stage Operations |
3 |
3 |
0 |
|
CHE 432 |
Chemical Reaction Engineering |
3 |
3 |
0 |
|
CHE 437 |
Process Application Laboratory |
3 |
0 |
9 |
|
CHE 438 |
Adv. Modeling and Simulation |
3 |
3 |
0 |
|
CHE 460 |
Process Control |
3 |
3 |
0 |
|
CHE 468 |
Chemical Process Design I |
3 |
3 |
0 |
|
CHE 470 |
Chemical Process Design II |
4 |
1 |
9 |
|
CHM 111 |
General Chemistry Lab II |
2 |
1 |
6 |
|
CHM 224 |
Organic Chemistry Lab |
1 |
1 |
3 |
|
CHM 227 |
Organic Chemistry I |
3 |
3 |
0 |
|
CHM 229 |
Organic Chemistry II |
3 |
3 |
0 |
|
CHM 341 |
Chemical Thermodynamics and Applications |
3 |
3 |
0 |
|
E 340 |
Heat Transfer |
3 |
3 |
0 |
The typical sequence of courses is listed in the separate Program Flow Chart and the Departmental Curriculum Forms available in the College Records Office.
Concentrations - flexibility and focus
Civil and Environmental Engineering
Office: 262 Engineering, McNichols Campus
Faculty: U. Dutta; C. Gangopadhyay; A. Hoback; A. Ku; A. Rihana-Abdalla
Telephone: (313) 993-1040
Fax: (313) 993-1187
E-mail: duttau@udmercy.edu
The efforts of civil engineers make the world a better place for others through the planning, design, construction, and maintenance of various resources, including buildings, bridges, dams, canals, highways, airports, railroads, water supply systems, waste treatment plants, etc. Civil Engineering is the instrument for channeling scientific and technical skills into civil construction works which safeguard our environment and protect us from natural disasters. Because any type of construction deals with changing or adding to our planet, civil engineering directly deals with environmental issues.
The civil and environmental engineering curriculum provides students with: 1) a global vision and approach to problem identification, formulation and solving in areas such as infrastructure, environment and facilities; 2) a management knowledge base in areas such as ethics, communication skills, team concepts and value judgment; and 3) a three-term real world engineering work experience through the co-operative education program. As a part of the curriculum, students are exposed to all areas of Civil and Environmental Engineering, including structures, transportation, geotechnical, hydrology and water/waste water.
In addition to the Engineering core curriculum, all civil and environmental engineering students must satisfactorily complete the following courses:
|
|
|
Cr. |
Lec. |
Lab. |
|
CE 342 |
Structural Theory |
4 |
4 |
0 |
|
CE 345 |
Construction Materials |
3 |
2 |
3 |
|
CE 348 |
Soil Mechanics |
3 |
3 |
0 |
|
CE 349 |
Soil Mechanics Lab |
1 |
0 |
3 |
|
CE 352 |
Transportation Engineering |
3 |
3 |
0 |
|
CE 450 |
Water and Waste Water Eng. |
3 |
3 |
0 |
|
CE 451 |
Water & Waste Water Eng. Lab |
1 |
0 |
3 |
|
CE 453 |
Applied Hydraulics & Hydrology |
3 |
3 |
0 |
|
CE 458 |
Design of Concrete Structures |
3 |
3 |
0 |
|
CE 460 |
Design of Steel Structures |
3 |
3 |
0 |
|
CE 482 |
Senior Engineering Design Project |
3 |
3 |
0 |
|
E 313 |
Dynamics |
3 |
3 |
0 |
|
E 324 |
Engineering Economy |
3 |
3 |
0 |
|
E 326 |
Mechanics of Deformable Bodies I |
3 |
3 |
0 |
|
E 327 |
Mechanics of Deformable Bodies I Lab |
1 |
0 |
3 |
Concentrations - flexibility and focus
Each student must take a total of nine credit hours in design and engineering science electives beyond the departmental core. Two courses must be design electives (*), and one must be an engineering science elective (**). For a specific concentration, students are required to take selected design electives and engineering science electives.
Engineering science electives beyond those mentioned below may be selected with the approval of the department chair.
Structural:
|
CE 340 |
Engineering Survey/GIS* |
3 cr. |
|
CE 440 |
Structural Dynamics** |
3 cr. |
|
CE 466 |
Bridge Design* |
3 cr. |
|
CE 474 |
Advanced Steel Design* |
3 cr. |
|
CE 476 |
Advanced Concrete Design* |
3 cr. |
|
E 442 |
Finite Element Methods** |
3 cr. |
Geotechnical:
|
CE 340 |
Engineering Survey/GIS* |
3 cr. |
|
CE 478 |
Foundation Engineering* |
3 cr. |
|
CE 480 |
Design of Earth Retention* |
3 cr. |
Environmental:
|
CE 340 |
Engineering Survey/GIS* |
3 cr. |
|
CE 484 |
Environmental Chemistry & Design* |
3 cr. |
|
CE 486 |
Environmental Microbiology & Design* |
3 cr. |
|
CE 483 |
Hazardous Waste |
3 cr. |
|
CE 488 |
Solid Waste |
3 cr. |
* Design electives
** Engineering science electives
The typical sequence of courses is listed in departmental curriculum forms which are available in the College Records Office.
Electrical and Computer Engineering
Office: 330 Engineering, McNichols Campus
Faculty: N. Al-Holou; A. Ashrafzadeh; C. Lin; M. Krishnan; M. Paulik; R. Ross; D. Sengupta; E. Venugopal; S. Yost, CSJ
Telephone: (313) 993-3365
Fax: (313)-993-1187
E-mail: alholoun@udmercy.edu
Electrical, electronics and computer engineers find innovative ways to use electricity and computers to improve people’s lives. Electrical engineers have dozens of career options. They can design power systems or automotive controls, develop medical testing equipment, work on the space shuttle, design communications satellites or develop new and faster computer technologies. The preparation for all of these begins with a bachelor’s degree in Electrical Engineering.
The Electrical Engineering curriculum is carefully designed to provide students with a background that enables students to join the industrial work force directly after graduation or continue with graduate studies. The program is based on a design-oriented philosophy that allows students to not only understand the theoretical concepts but also apply those concepts in practical situations. Students work on numerous design problems and projects assigned by the professors in the classroom and laboratory, and acquire hands-on experience by undertaking cooperative education training in industry beginning in the sophomore year. Recent capstone design projects include a voice activated wheelchair and an autonomous (auto-guided) vehicle.
There is a basic core of material that every electrical engineer should know to provide the foundation for all other learning and work. For this reason all electrical engineering majors are required to take a series of departmental core courses in addition to the Engineering core requirements. The departmental core courses are:
|
|
|
Cr. |
Lec. |
Lab. |
|
E 322 |
Control Systems |
3 |
3 |
0 |
|
EE 350 |
Network Theory I |
3 |
3 |
0 |
|
EE 352 |
Network Theory II |
3 |
3 |
0 |
|
EE 356 |
Electronics I |
3 |
3 |
0 |
|
EE 358 |
Electronics II |
3 |
3 |
0 |
|
EE 361 |
Circuits Laboratory |
2 |
1 |
3 |
|
EE 363 |
Electronics Laboratory |
2 |
1 |
3 |
|
EE 364 |
Digital Logic Circuits |
3 |
3 |
0 |
|
EE 365 |
Digital Logic Circuits Lab |
1 |
0 |
3 |
|
EE 366 |
Electromagnetics I |
3 |
3 |
0 |
|
EE 368 |
Solid State I |
3 |
3 |
0 |
|
EE 372 |
Electromechanical Energy Conversion |
3 |
3 |
0 |
|
EE 374 |
Communication Theory I |
3 |
3 |
0 |
|
EE 401 |
Electrical Design I |
2 |
0 |
3 |
|
EE 403 |
Electrical Design II |
3 |
0 |
6 |
|
MTH 451 |
Techniques of Advanced Calculus |
3 |
3 |
0 |
|
PHY 364 |
Introduction to Modern Physics |
3 |
3 |
0 |
|
PHY 365 |
Introduction to Modern Physics Lab |
1 |
0 |
3 |
The typical sequence of courses is listed in the separate Program Flow Chart and the Departmental Curriculum Forms available in the College Records Office.
Concentrations - flexibility and focus
Computer Engineering:
|
EE 460 |
Computer Aided Design in Integrated Circuits |
|
EE 464 |
Hardware Description Language |
|
EE 468 |
Computer Communication |
|
EE 480 |
Computer Architecture |
|
EE 486 |
Microprocessors |
|
EE 487 |
Microprocessors Lab |
|
EE 488 |
Digital Signal Processing I |
Signal and Systems Engineering:
|
EE 458 |
Electronics III |
|
EE 462 |
Random Variables and Random Processes |
|
EE 466 |
Electromagnetics II |
|
EE 470 |
Control Systems II |
|
EE 474 |
Communication II |
|
EE 476 |
Direct Digital Controls |
|
EE 484 |
Electromagnetic Compatibility |
|
EE 488 |
Digital Signal Processing I |
|
EE 490 |
Radiation and Antennas |
|
EE 492 |
Digital Image Processing |
These courses may be taken as a sequence or in conjunction with other courses in engineering or mathematics.
Manufacturing Engineering
Office: 242 Engineering, McNichols Campus
Director: D. Lee
Telephone: (313) 993-3360
Fax: (313) 993-1187
E-mail: leedg@udmercy.edu
Manufacturing engineers play a vital role in society by developing and continuously improving the processes and systems that produce almost every item that people use in their workplaces, homes, and recreation. Manufacturing engineers focus on safety, environmental impact, quality, productivity, and cost of the manufacturing processes and systems for which they have responsibility. They must have a broad understanding of core engineering disciplines that enables them to work closely with mechanical, electrical, civil, and chemical engineers to address the full range of issues that occur in manufacturing. In addition to a strong engineering core, the manufacturing engineering curriculum includes courses in topics such as manufacturing systems, manufacturing processes, machining, forming, joining and assembly, tool design, facilities design, manufacturing planning, and operations management.
UDM offers BMfgE degrees in two off-campus programs. The first of these is offered to candidates at Focus:HOPE (see Greenfield Coalition, p. 105 in this catalog.) The second program is offered to employees of the Ford Motor Company and its suppliers. There is currently active work in progress to bring the BMfgE program to the UDM campus. At present, students with a strong interest in manufacturing who are not eligible to participate in the off-campus degree programs may choose the program in Mechanical Engineering with a Concentration in Manufacturing.
Mechanical Engineering
Office: 214 Engineering, McNichols Campus
Faculty: Y. Chadda; S. Das; J. Fragomeni; A. Haman; L. Hanifin; K. Muci-Küchler; K. Plantenberg; M. Schumack; J. Weaver
Telephone: (313) 993-3370
E-mail:schumamr@udmercy.edu
The mechanical engineering program is rich in laboratory experience and team-oriented design activities. The mechanical engineering curriculum prepares graduates to solve
problems related to:
• design and manufacture of products
• reliability of components and systems
• conversion of energy from one form to another
• instrumentation and control of physical processes
Mechanical engineers are prepared to solve problems by drawing on technical knowledge and insight involving materials, mechanics, controls, structures and manufacturing processes. Mechanical engineers solve problems and design systems that range from automobiles, consumer products, air conditioning, power generation, aircraft and production systems.
A mechanical engineer deals with the physical reality of things such as engines, car bodies, electric generators, cranes, air conditioners, airplane wings and pumps. The mechanical engineer is faced with the challenges and uncertainties that come with complex products and systems. In addition to using the classical and modern principles of engineering science, the mechanical engineer must be able to devise economically viable, environmentally friendly, and socially acceptable solutions to problems.
The Mechanical Engineering Department provides students with an indepth knowledge of engineering science and design methodology. These insights are reinforced by intensive laboratory experiences in virtually every area of study and three industrial co-op assignments. Students also have team-oriented design experiences integrated throughout their curriculum. A capstone design project, conducted in the senior year, challenges students with an industrially-sponsored product that involves solving a real product or process related problem that draws on knowledge of engineering science and design.
In addition to the Engineering core outlined previously, the mechanical engineering program includes the following :
|
|
|
Cr. |
Lec. |
Lab. |
|
E 107 |
Introduction to Solid Modeling |
1 |
0 |
3 |
|
E 313 |
Dynamics |
3 |
3 |
0 |
|
E 319 |
Fluid Mechanics Lab |
1 |
0 |
3 |
|
E 326 |
Mech. of Defor. Bodies |
3 |
3 |
0 |
|
E 327 |
Mech. of Defor. Bodies (Lab) |
1 |
0 |
3 |
|
ME 380 |
Thermodynamics II |
3 |
3 |
0 |
|
ME 382 |
Manufac. Processes |
3 |
3 |
0 |
|
ME 383 |
Manufac. Proc. Lab |
1 |
0 |
3 |
|
E 340 |
Heat Transfer |
3 |
3 |
0 |
|
E 341 |
Heat Transfer Lab |
1 |
0 |
3 |
|
ME 361 |
Mech. Engin. Lab |
2 |
1 |
3 |
|
ME 390 |
Mech. Engin. Design I |
3 |
3 |
0 |
|
ME 392 |
Mech. Engin. Design II |
3 |
3 |
0 |
|
ME 493 |
Prototype Design I |
2 |
3 |
0 |
|
ME 488 |
Reliability in Design |
3 |
3 |
0 |
|
ME 492 |
Comp. Aided Design |
3 |
3 |
0 |
|
ME 495 |
Prototype Design II |
3 |
3 |
0 |
Technical Electives - flexibility and focus
Concentrations
Automotive Engineering:
|
ME 458 |
Internal Combustion Engines I |
3 cr. |
|
ME 459 |
Internal Combustion Engines Lab |
1 cr. |
|
ME 472 |
Noise and Vibration |
3 cr. |
|
ME 476 |
Vehicle Dynamics |
3 cr. |
|
ME 498 |
Internal Combustion Engines II |
3 cr. |
|
E 478 |
Mechatronics |
3 cr. |
|
ME 472 |
Noise and Vibration |
3 cr. |
Engineering Mechanics:
|
E 444 |
Vibrations |
3 cr. |
|
E 448 |
Advanced Fluid Mechanics |
3 cr. |
|
ME 480 |
Energy Systems |
3 cr. |
|
ME 494 |
Modeling of Dynamic Systems |
3 cr. |
Manufacturing Processes and Systems:
|
E 322 |
Control Systems |
3 cr. |
|
E 324 |
Engineering Economy |
3 cr. |
|
ME 402 |
Design for Quality |
3 cr. |
|
ME 430 |
Metal Cutting Analysis |
3 cr. |
|
ME 432 |
Metal Forming Analysis |
3 cr. |
|
ME 478 |
Manufacturing Productivity |
3 cr. |
|
ME 482 |
Computer Aided Manufacturing |
3 cr. |
Engineering (Undesignated)
In this program, students takes a technical elective sequence of courses arranged to satisfy their special interests for a career in an area outside the traditional or available degree areas of engineering. Special interest areas include, but are not restricted to, engineering mechanics, bio-engineering, systems engineering, management, mechatronics, etc.
A student pursuing the undesignated degree plans his or her individual major program in consultation with the dean of the College of Engineering and Science.
Mexican American Partnership (MAP) Program
Office: E258, McNichols Campus
Telephone: (313) 993-3371
E-mail:thompsdr@udmercy.edu
Regularly admitted students majoring in Chemical, Civil, Electrical, and Mechanical Engineering can apply for the MAP program. If needed, during their first year, MAP students augment their engineering studies with Spanish classes. In the summer following their first year, the MAP students needing further language education participate in a seven-week intensive Spanish program at Monterrey Tech in Mexico.
After their sophomore year at University of Detroit Mercy, MAP students in good standing undertake industrial co-op assignments at a U.S. automotive facility of one of the industrial sponsors of the program.
The third year (calendar) of the program is spent entirely in Mexico, in a combination of two academic terms and one industrial assignment. All instruction is in Spanish but the textbooks used are in English and classmates and faculty are able to speak English. Third year industrial assignments are at Mexican facilities of the MAP Sponsors. While taking course work in Mexico, MAP students will be registered for the course MAP 300 in their first term and MAP 350 in their second term in order to facilitate later transfer of credit back to UDM. Grades for course work taken in Mexico do not transfer. Eligibility for graduation with honors will be based on the last 60 hours at UDM (ie, sophomore and senior years).
After the junior year in Mexico, the senior year of the program starts with an industrial assignment in the U.S. and is followed by the last two academic terms before graduation.
While studying at Monterrey Tech, tuition will be charged by UDM for course work taken at Monterrey Tech. Any type of financial aid (ie, scholarships, loans, etc) will be honored at UDM to help cover tuition expenses. These, combined with the income earned from the industrial assignments, which usually exceeds $20,000, make the program affordable to many. While in Mexico, the MAP student is responsible for room, board and transportation to and from Mexico.
Greenfield Coalition
Affiliated Programs for Engineering Students
Ashland College (Ashland, Ohio)
Canisius College (Buffalo, New York)
Central Michigan University (Mt. Pleasant, Michigan)
Creighton University (Omaha, Nebraska)
Erie Community College (Buffalo, New York)
Gannon University (Erie, Pennsylvania)
Henry Ford Community College (Dearborn, Michigan)
Jackson Community College (Jackson, Michigan)
Jamestown Community College (Jamestown, New York)
John Carroll University (Cleveland, Ohio)
Macomb Community College (Warren, Michigan)
Madonna University (Livonia, Michigan)
Niagara University (Niagara Falls, New York)
Oakland Community College (Bloomfield Hills, Michigan)
Ohio Dominican College (Columbus, Ohio)
Rockhurst College (Kansas City, Missouri)
St. Bonaventure University (St. Bonaventure, New York)
St. John Fisher College (Rochester, New York)
Schoolcraft College (Livonia, Michigan)
Washtenaw Community College (Ann Arbor, Michigan)
Wayne County Community College (Detroit, Michigan)
Wheeling College (Wheeling, West Virginia)
Xavier University (New Orleans, Louisiana)
The pre-engineering curricula at these institutions are designed to facilitate transfer to the cooperative education program offered by the College of Engineering and Science. Students who have successfully completed an approved UDM-equivalent academic program at any of the above affiliated colleges or universities, and are accepted for transfer, typically will receive a baccalaureate degree from UDM upon completion of 64 approved credit hours and a minimum of three approved cooperative training assignments.
An excess of credit may reduce the 64 credit hour requirement at University of Detroit Mercy by an amount up to the maximum number of credit hours allotted to the respective portions of the curriculum. For example, a student who may have completed 24 credit hours in the humanities and social sciences at the affiliated school (theology, philosophy, etc.) may be allowed the maximum of 20 credit hours towards the engineering degree at University of Detroit Mercy.
Students interested in attending any of the above-listed schools for the first part of their program should communicate directly with the pre-engineering coordinator of the college or university and seek admission there. Later acceptance by University of Detroit Mercy will depend on the quality of the academic work recorded on the transcript. Students beginning their engineering program at another institution are encouraged to contact a representative from the University of Detroit Mercy’s engineering programs to obtain answers to any questions and advice on course selection.
Science Programs
University of Detroit Mercy strives to produce scientific leaders who are highly competent, well-trained in scientific instrumentation and processes, and versatile. These scientific leaders become doctors and dentists, teachers and systems analysts, research scientists and mathematicians. The science and mathematics programs are designed with this in mind, while providing in-depth coverage of the foundation elements of the life sciences, the physical sciences, mathematics, and computer science.
Each of these programs is multifaceted as it devotes itself to helping students become professionals as they acquire:
1. a thorough understanding of fundamental knowledge of science, mathematics, and computer science;
2. an understanding and appreciation of the methodologies of science, mathematics, and computer science;
3. a sensitivity to the values inherent in science, mathematics, and computer science, as well as in other areas of human endeavor;
4. the ability to learn for oneself and continue to grow and keep abreast of the expanding and ever-changing frontiers that characterize the world of science and technology in which they live;
5. the self-confidence and ability to communicate with others in an effective way;
6. an outlook on life that will serve them well as they move forward professionally in their postgraduate years.
The science and mathematics and computer science programs serve a wide cross-section of the student body, while providing a variety of programs suited to the needs of students majoring in these disciplines. The departments of Biology, Chemistry and Biochemistry, and Mathematics and Computer Science are described in the pages which follow; the physics faculty is an integral part of the Department of Electrical and Computer Engineering. The great majority of pre-medical and pre-dental students major in one of the science programs. Information pertaining to these programs is found later in this section of the catalog.
Biology
Office: 101 Life Sciences Building
Faculty: G. Albright, S.J.; S. Baker; G. Grabowski; J. Graves; B. Hollar; M. Ottenbreit
Telephone: (313) 993-1180
E-mail: ottenbmj@udmercy.edu
The Department of Biology offers degree programs which prepare its graduates for a wide variety of careers. While many graduates become physicians or dentists, others employ their knowledge of biology as research scientists or teachers. Their competency leads to important contributions to society based on a program which includes personal instruction by scholars in their field, strong laboratory resources and experiences, and broad coverage of the various areas of biology.
Biology Major - Bachelor of Science
• The General Biology sequence (BIO 120/121, 122/123). This sequence is a prerequisite to all other biology courses in the department for biology majors.
• A choice of one course from the selection of courses that addresses organismal form and function. These courses are Comparative Vertebrate Anatomy (BIO 260/261), Plant Form and Function (BIO 451), Physiology (BIO 463).
• A choice of one course from the selection of courses that addresses biological systems. These courses are Evolution (BIO 420) and Ecology (BIO 448).
• A choice of two courses from the selection of courses that addresses cell biology and genetics. These courses are Genetics (BIO 270), Microbiology (BIO 421), Cellular and Molecular Biology (BIO 474).
• The student must take a minimum of three laboratories in addition to the General Biology laboratories.
• Biometrics (BIO 290) and Biology and Social Issues (BIO 499) are required of all biology majors.
To complete the 39 hour minimum requirement, the student may choose any of the following electives after having completed the General Biology sequence and any specific course prerequisites.
• Any of the above-listed courses in which the student has a special interest, or which are recommended by professional schools.
• Any of the following courses: Histology, Embryology, Immunology, Plant Developmental Biology, Animal Behavior, Human Anatomy, Human Genetics, Public Health Microbiology, Herpetology, Pathophysiology. With special permission, juniors and seniors may elect directed studies courses.
Biology majors must also complete the University core curriculum requirements and the following science and mathematics courses: Elementary Functions (MTH 140), General Chemistry I and II (CHM 107/110, 108/111), Organic Chemistry (CHM 227/228, 229), and General Physics (PHY 130/131, and 132/133). These chemistry and physics courses are required by professional schools of medicine and dentistry.
Not all professional schools of medicine or dentistry recommend specific additional biology courses. Those that do, suggest courses such as comparative anatomy, histology, embryology, or genetics.
Biology Major – Secondary Education
Chemistry and Biochemistry
Office: 109 Chemistry, McNichols Campus
Faculty: M. Benvenuto; D. Brook; M.L. Caspers; K. Henold; K. Lanigan; E. Roberts-Kirchhoff; S. Schlick; J. Stevens
Telephone: (313) 993-1258
E-mail: schleyja@udmercy.edu
The Chemistry and Biochemistry Programs prepare students for advanced study in graduate, medical, dental or law schools and/or for employment in chemical and related industries, government or private research laboratories.
The Chemistry and Biochemistry Programs educate students as professional chemists who can plan and reason through problem situations and develop responses that are scientifically correct and ethically and socially acceptable.
The Chemistry and Biochemistry curricula provide exceptional opportunities to combine a traditional education with advanced laboratory experiences.
The undergraduate Chemistry and Biochemistry Programs also provide core curriculum courses for students pursuing other science, engineering, and liberal arts curricula.
Chemistry Major-Bachelor of Science
Requirements include: CHM 107, 108, 110, 111, 227, 228, 229, 230, 341, 342, 343, 344, 387, 401, 481, 482 and either 470 or 471, plus at least two electives from 400 level courses; MTH 141, 142, 241, and CSC 171 or CIS 100, PHY 160, 161, 162, 163 and ENL 131. The requirements for this degree also include additional credit hours from the University core curriculum.
Chemistry Major-Bachelor of Arts
Requirements include: CHM 107, 108, 110, 111, 227, 228, 229, 230, 333, 334, 341, 342, and 387; MTH 141, 142, and CSC 171 or CIS 100; PHY 130, 131, 132, 133.
The requirements for this degree also include the University core curriculum.
Biochemistry Major - Bachelor of Science
Also required are: BIO 120, 121, 122, 123, 15 credit hours of BIO (200-level or above); MTH 141, 142, and CSC 171 or CIS 100; PHY 130, 131, 132, 133; additional credit hours from the University core curriculum.
Cooperative Education
Mathematics and Computer Science
Office: 242 Briggs, McNichols Campus
Faculty: S. Al-Ahmar; J. Boats; M. Canjar; K. Daimi; J. Dwyer; N. Dwyer; W. Gruber; A. Longe; J. O’Neill, S.J.; F. Saba; M. Skaff; K. Snyder; L. Sullivan, R.S.M.; C. Wilson; K. Zhong
Telephone: (313) 993-1022
E-mail: canjarrm@udmercy.edu
The Department of Mathematics and Computer Science is uniquely qualified to offer programs that blend theory and practice in an innovative way, preparing students for career options in academic, corporate, and government areas. Classes are deliberately structured to enable students who pursue a major in Mathematics or Computer Science to learn in concert with Engineering and Science majors. In this setting, the student’s appreciation of the inherent power and cohesiveness of mathematics is enhanced by the highlighted role that mathematics plays in all fields. Four degree programs are offered.
Mathematics Major - Bachelor of Science
Students must earn at least a C grade in each required course and have an overall 2.0 G.P.A. in the major. The major requirements are:
• MTH 141, 142, 241, 276, 372, 402, 405, 435, 469
• CSC 171 and ENL 303
• electives described below
Electives - flexibility and focus
• An additional six credits of mathematical electives from: MTH 305, 406, 410, 415, 423, 427, 428, 436, 437, 455, 457, 458, 459, 460, 461, 462, 466 or CSC 172, 272, 442, 443, 445, 449.
• An additional 15 credits of electives in mathematics or in an area related to mathematics. These may include courses in mathematics, computer science, chemistry, physics, engineering, biology, economics, management science or other courses approved by the department.
Mathematics Major - Bachelor of Arts
The student must earn at least a C grade in each required course and a 2.0 G.P.A. overall in the major. Prospective teachers must earn a 2.7 G.P.A. in the major. There are 36 credit hours in the major including:
• MTH 140, 141, 142, 241, 481(or 405), 482(or 402), 483, 484, and 485
• Electives described below
Electives - flexibility and focus
MTH 276, 372, 406, 415, 423, 427, 428, 451, 458, 459, 460, 461, 462, 484, 485, 486, and 487.
The student must earn at least a C grade in each required course and a C average for the 64 credit hours required for the major. The cooperative education program is highly recommended.
Bachelor of Arts with Elementary Certification
A twenty-hour cognate is also required. Students must complete the professional education sequence for elementary certification.
The student must earn at least a C grade in each required course and an overall G.P.A. of 2.7 in the major. The 30 hours for the major include: MTH 111, 112, 477, 478, 480, 481, 483, 484, 485 and 487. An additional course must be selected from: CSC 171, MTH 461, 462, 482 and 486.
Bachelor of Science in Computer Science
• CSC 171, 172, 271, 413, 417, 442, 443, 445, 449, 469.
• MTH 141, 142, 241, 276, 402, 427
• CIS 382, EE 364/365 and 480 and ENL 303.
• electives described below
Electives - flexibility and focus
• CSC 341, 441, 452, 454, 461, 463, 465 and 490
• MTH 372, 405, 410, 415, 428, 437, 451, 455, 457, 458, 459 and 460
• EE 464, 468, 486 and 492
• CIS 387, 390, 480 and 482
The student must earn at least a C grade in each required course and a C average for the 76 credit hours required for the major. The cooperative education program is highly recommended.
Pre-Medical and Pre-Dental Programs
Office: 101 Life Sciences, McNichols Campus
Program Coordinator: R. G. Albright, S.J.
Telephone: (313) 993-1182
E-mail: albrigrg@udmercy.edu
The Pre-Medical and Pre-Dental programs are not degree programs, but a combination of support structures and learning environments which aid the pre-professional student in his/her efforts to gain entry into medical or dental school and, ultimately, achieve a satisfying and rewarding medical career.
UDM provides pre-medical and pre-dental students with the breadth and depth of academic, cultural, and moral background that will enable them to compete successfully with their peers from other colleges, both in gaining admission to professional school and retaining high class status after acceptance. A realistic, as opposed to a merely idealistic, approach is used in pre-medical and pre-dental counseling, with full concern for the individual student and his or her needs, as well as with careful attention to fulfilling the pre-professional requirements.
The record of success in placing UDM students in the medical and dental schools and the large number of its graduates now in active professional practice, attest to the value of this approach.
Gaining admission to medical or dental schools continues to be extremely competitive, and high scholastic achievement is necessary. Consequently, only those students who have proven their ability to excel in the sciences and all other areas of study will be accepted into the program and allowed to remain.
Advising and Mentoring Program
Students who maintain high academic standing are, in their sophomore year, eligible for assignment of a mentor from the medical/dental profession. This provides the opportunity to interact with a practicing professional, either on campus or in the work environment, yielding enhanced understanding of patient care delivery and career opportunities within specific areas of practice.
Selection of Degree/Major
Six-Year BS/DDS Program
Office: 101 Life Sciences Building, McNichols Campus
Program Coordinator: R. G. Albright, S.J.
Telephone: (313) 993-1182
E-mail: albrigrg@udmercy.edu
UDM offers a unique academic program which enables students to earn a Doctor of Dental Surgery Degree plus a baccalaureate degree in six calendar years, rather than the traditional eight years.
Students enrolled in the Six-Year BS/ DDS Program spend the first two years at the UDM McNichols Campus studying in the College of Engineering and Science. The last four years of study are in the School of Dentistry.
In addition to the basic science courses required of all dental school applicants, Six-Year Program students must meet all of the requirements of the University core curriculum. This includes course work in speech, English, mathematics, computers, religious studies, philosophy, history and culture, ethics, and social responsibility.
Eligibility
Applicants must be admitted to the Program prior to beginning undergraduate studies at UDM. Once admitted, students must be enrolled full time in each regular semester, and the portion of the curriculum taken at the McNichols Campus must be completed within two calendar years.
Students successfully completing all requirements of the Program will be granted the Bachelor of Science degree after four years and the Doctor of Dental Surgery degree at the end of the sixth year.
Admission Requirements
• Be a high school graduate in the top 25% of his or her graduating class.
• Have achieved a high school ACT composite score of 24 or a combined SAT score of 1010.
• Complete at the time of application a satisfactory interview with the University’s Program Selection Committee.
• Attain during the undergraduate years at least a 3.2 cumulative grade point average based on all required courses.
• Attain at the end of the undergraduate years an acceptable score on the Dental Admission Test.
• At the time of transition to the dental program, complete interviews with the Committee on Student Evaluations for the Medical and Dental Professions, and with the Admissions Committee of the School of Dentistry.
Application Procedures