General Catalog 2007-2009

Engineering at York College

Engineers are problem solvers. They synthesize ideas, make decisions, design systems, and create solutions to problems, all subject to a diverse set of real-world constraints. In addition to performance factors, these constraints include economic and environmental issues, safety, timeliness, reliability, ethics, aesthetics and social impact. Engineers must understand the implications and interaction of these constraints within the framework of our technology-dependent society.

Engineering has long played a key role in adapting scientific knowledge to societal needs. In virtually every sector of our economy, engineers draw upon mathematics and basic science to design machines, processes, and systems of all types.

At York College, students pursue Bachelor of Science degrees in Computer Engineering, Electrical Engineering, and Mechanical Engineering. These three disciplines encompass an extraordinarily wide range of technical work, including machine design, HVAC, electromechanical power conversion, automated manufacturing, robotics, telecommunications, embedded control systems, and microprocessor design.

Engineering majors at York College participate in a rigorous and relevant program of study in science, mathematics and engineering, as well as general education courses in the arts, humanities, foreign culture, and the behavioral and social sciences. The engineering component of the program, in addition to being academically rigorous, places strong emphasis on hands-on experience and the art of engineering design. The curriculum provides for both breadth and depth through required and elective engineering courses.

All engineering majors also complete three semesters of salaried professional work through the engineering cooperative education (“co-op”) program. The program is supported in part by an active partnership of regional industrial and business organizations. This partnership provides financial resources for engineering scholarships and laboratory development, and co-op opportunities for students. It also provides for ongoing interaction with practicing engineers and engineering managers to assure a relevant curriculum of the highest standards.

All YCP engineering students undergo regular exposure to the profession and practice of engineering. This occurs through client- and national society-based design projects as well as through involvement with professional societies including seminars, field trips, dinner meetings, and student-chapter activities.

Career options for York College engineering graduates cover the range from entry-level engineering positions in industry and business to advanced study leading to graduate degrees. A multitude of options exists in industry, including product research and development in both the consumer and commercial sectors; automated system design and process control in manufacturing; materials characterization and engineering; power generation, transmission, conversion, utilization and management; design of portable electronic devices for communication and entertainment; microprocessor-based intelligent systems and materials; and the design of microprocessors. York College engineering graduates may also pursue graduate study in engineering, or other fields such as business, law, or medicine.

York College is committed to providing its engineering majors with the highest quality educational experience possible. Our programs feature small classes and labs taught by full-time faculty, closeness with faculty and fellow students both within and beyond the academic realm, and a rich and open relationship with the faculty and student body as a whole.

Accreditation

The Mechanical Engineering Program is fully accredited under the most current criteria (EC2000) of the Engineering Accreditation Commission (EAC) of the Accreditation Board for Engineering and Technology (ABET).

The Electrical Engineering and Computer Engineering programs of York College are not accredited at this time; however, they are designed to meet the program criteria set forth by the Engineering Accreditation Commission (EAC) of the Accreditation Board for Engineering Technology (ABET).

Mission Statement

In the belief that engineering is both a social and technical profession, the Engineering Programs at York College are committed to preparing engineers to practice their profession in the face of challenges-both known and unknown-that are many and diverse. Engineers preparing for work in the coming decades will be required to contend with an ever-increasing pace of change, an explosion of information, and the globalization of economies and technology. They will need an increased awareness of, and ability to deal with, environmental and national priorities, and an understanding of, and appreciation for, the human condition.

In our effort to prepare students to meet these and other challenges for the exciting and unknown road ahead, our engineering programs, consistent with their origin and institutional mission, are dedicated to providing their engineering graduates with the knowledge and skills necessary to successfully practice their chosen profession, to pursue graduate study in engineering or other fields, and to inspire a passion for life-long learning.

Criteria for Admission

Criteria for admission as an engineering major at York College include satisfactory evaluation of the following:

1. High school academic performance including class rank and quality of courses taken

2. Minimum high school (or equivalent) preparation will include

a. Three years of laboratory science (physics strongly recommended)

b. Four years of mathematics normally covering elementary and intermediate algebra, plane geometry and trigonometry

c. Four years of English

3. SAT or ACT scores

4. High school recommendations

5. Personal qualities and extracurricular record

Transfer Students

Students who have successfully completed (or are in the process of completing) the A.S. degree in Engineering Science at two-year institutions or who wish to transfer to York College from other four-year institutions may apply for admission to study engineering at York College. Transfer applicants must submit a completed application form and official transcripts from each college attended. Admission is considered on a case-by-case basis. Interviews are optional but encouraged.

Requirements For Graduation

To be eligible for graduation, students majoring in Computer, Electrical, and Mechanical Engineering must (i) complete a minimum of 142 credits (including 6 credits of co-op), (ii) achieve a grade of 2.0 or higher in courses required for the major, (iii) achieve a cumulative GPA of 2.0 or higher, (iv) satisfactorily complete three full semesters of co-op, (v) satisfy the College’s residency requirement, and (vi) complete the General Education Requirements of the College.

Co-op begins for all engineering majors during the summer between their sophomore and junior years. To be eligible for co-op, a student must have a GPA of 2.0 or higher and have completed a minimum of 64 credit hours of course work.

Curriculum

The curriculum provides a balance of courses in three areas:

1. Science, mathematics, and basic engineering

2. Fine arts and humanities, international studies/foreign language, American/ western civilization and American government, and the behavioral and social sciences

3. Professional engineering practice including a significant component of open-ended design problems and three semesters of industry-based co-op

Required Courses for all Engineering majors

Common Core Requirements (17 credit hours)

WRT102 Analytical Reading and Writing (3))

WRT202 Academic Writing (3)

CM104 Human Communication (3)

IFL101 Information Literacy (2)

MAT171 Calculus I (4)

Physical Education (2)

Area Distribution Requirements (24 credit hours)

Area I: Fine Arts and Humanities (6)

Area II: Social and Behavioral Sciences (6)

Area IV: American/Western Civilization and Government (6)

Area V: International Studies/Foreign Language (6)

Science and Mathematics Requirements (22 credit hours)

CHM134 General Chemistry I (3)

CHM135 General Chemistry I Lab (1)

PHY160 Engineering Physics (Mechanics) (4)

PHY161 Engineering Physics Lab (Mechanics) (1)

PHY260 Engineering Physics (Electricity & Magnetism) (4)

PHY261 Engineering Physics Lab (E & M) (1)

MAT172 Analytic Geometry and Calculus II (4)

MAT272 Differential Equations (4)

General Engineering Requirements (17 credit hours)

EGR100 Engineering Practice and Design Studio (EPADS) I (2)

EGR102 Engineering Practice and Design Studio (EPADS) II (2)

EGR290 Engineering Career Training Preparation (1)

EGR400 Senior Design I (3)

EGR402 Senior Design II (3)

EGR491 Co-op I (2)

EGR492 Co-op II (2)

EGR493 Co-op III (2)

Additional Computer Engineering Requirements (63 credit hours)

CS200 Fundamentals of Programming & Algorithms I (4)

CS320 Software Engineering & Design (3)

CS360 Analysis of Algorithms (4)

CS420 Operating Systems (3)

ECE220 Design & Analysis of Digital Circuits (4)

ECE235 Computations in Discrete Mathematics (1)

ECE258 Mathematical Methods for Engineers (3)

ECE260 Fundamentals of Computer Engineering (4)

ECE280 Fundamentals of Electrical Engineering (3)

ECE281 Electronic Instrumentation (1)

ECE310 Design & Analysis of Analog Circuits (4)

ECE330 Signals & Systems (4)

ECE340 Random Signals (2)

ECE370 Microprocessor System Design (3)

ECE380 Communication Networks (3)

ECE420 Embedded System Design (4)

Four Engineering Electives (13)

Additional Electrical Engineering Requirements (48 credit hours)

ECE220 Design & Analysis of Digital Circuits (4)

ECE235 Computations in Discrete Mathematics (1)

ECE258 Mathematical Methods for Engineers (3)

ECE270 Waves & Optics (3)

ECE280 Fundamentals of Electrical Engineering (3)

ECE281 Electronic Instrumentation (1)

ECE310 Design & Analysis of Analog Circuits (4)

ECE330 Signals & Systems (4)

ECE340 Random Signals (2)

ECE350 Electromagnetic Fields (3)

ECE360 Power Systems (3)

ECE410 Power Electronics (4)

Four Engineering Electives (13)

Plus one of the following three optional tracks:

Standard Track (15 credits)

CS200 Fundamentals of Programming & Algorithms I (4)

ECE260 Fundamentals of Computer Engineering (4)

ECE440 Automatic Controls (4)

EGR390 Dynamics of Physical Systems (3)

Thermal Science Track (16 credits)

EGR256 Computer Applications for Engineers (2)

ME250 Statics (3)

ME320 Thermodynamics (4)

ME360 Fluid Mechanics (3)

ME361 Thermo/Fluid Experiments (1)

ME410 Heat Transfer (3)

Machine Design Track (16 credits)

EGR256 Computer Applications for Engineers (2)

EGR390 Dynamics of Physical Systems (3)

ME250 Statics (3)

ME264 Strength of Materials (3)

ME265 Materials/Solids Lab (1)

ME380 Machine Design (4)

Additional Mechanical Engineering Requirements (62 credit hours)

EGR256 Computer Applications for Engineers (2)

EGR258 Engineering Mathematics (4)

EGR305 Statistical Design and Process Control (3)

ME250 Statics (3)

ME252 Dynamics and Vibration (4)

ME260 Materials Science (3)

ME261 Materials Science Laboratory (1)

ME264 Strength of Materials (3)

ME265 Materials and Solids Laboratory (1)

ME280 Electrical Circuits (3)

ME281 Electronic Measurement and Signal Processing (1)

ME320 Thermodynamics (4)

ME340 Mechatronics (4)

ME360 Fluid Mechanics (3)

ME361 Thermo/Fluids Laboratory (1)

ME380 Machine Design (4)

ME390 Computer Control of Machines and Processes (4)

ME410 Heat Transfer (3)

ME411 Thermal System Design (2)

Three Engineering Electives (9)

Computer Engineering (Suggested Course Sequence)

Freshman Year (Fall) Credits
Calculus I 4
General Chemistry I 4
Analytical Reading and Writing 3
EPADS I 2
Information Literacy 2
Area Distribution Requirement 3 
   
18
Freshman Year (Spring) Credits
Calculus II 4
Engineering Physics (Mechanics) 5
Academic Writing 3
EPADS II 2
Human Communication 3
Physical Education 1
   
18
Sophomore Year (Fall) Credits
Differential Equations 4
Engineering Physics (Electricity and Magnetism) 5
Fundamentals of Programming & Algorithms 4
Design & Analysis of Digital Circuits 4
Engineering Career Seminar 1
   
18
Sophomore Year (Spring) Credits
Mathematical Methods in Electrical Engineering 3
Computations in Discrete Mathematics 1
Fundamentals of Computer Engineering 4
Fundamentals of Electrical Engineering 3
Electronic Instrumentation Lab 1
Software Engineering & Design 3
Area Distribution Requirement 3
   
18
Summer Credits
Co-op I2

Junior Year (Fall) Credits
Design & Analysis of Analog Circuits 4
Signals & Systems 4
Microprocessor System Design 3
Operating Systems 3
Area Distribution Requirement 3
Physical Education 1 
   
18
Junior Year (Spring) Credits
Co-op II2

Summer Credits
Senior Design I 3
Communication Networks 3
Random Signals 2
Area Distribution Requirement 3
Area Distribution Requirement 3
   
14
Senior Year (Fall) Credits
Co-op III2

Senior Year (Spring) Credits
Senior Design II 3
Embedded System Design 4
Analysis of Algorithms 4
Engineering Elective 4
Area Distribution Requirement 3
   
18
Summer Credits
Engineering Elective 3
Engineering Elective 3
Engineering Elective 3
Area Distribution Requirement 3
Area Distribution Requirement 3
   
15

Electrical Engineering (suggested course sequence)

Freshman Year (Fall) Credits
Calculus I 4
General Chemistry I 4
Analytical Reading and Writing 3
EPADS I 2
Information Literacy 2
Area Distribution Requirement 3
   
18
Freshman Year (Spring) Credits
Calculus II 4
Engineering Physics (Mechanics) 5
Academic Writing 3
EPADS II 2
Human Communication 3
Physical Education 1
   
18
Sophomore Year (Fall) Credits
Differential Equations 4
Engineering Physics (Electricity and Magnetism) 5
Fundamentals of Programming & Algorithms 4
Design & Analysis of Digital Circuits 4
Engineering Career Seminar 1
   
18
Sophomore Year (Spring) Credits
Spring
Mathematical Methods in Electrical Engineering 3
Computations in Discrete Mathematics 1
Fundamentals of Computer Engineering 4
Fundamentals of Electrical Engineering 3
Electronic Instrumentation Lab 1
Waves & Optics 3
Area Distribution Requirement 3
   
18
Summer Credits
Co-op I2

Junior Year (Fall) Credits
Design & Analysis of Analog Circuits 4
Signals & Systems 4
Electromagnetic Fields 3
Power Systems 3
Area Distribution Requirement 3
Physical Education 1
   
18
Junior Year (Spring) Credits
Co-op II2

Summer Credits
Senior Design I 3
Dynamics of Physical Systems 3
Random Signals 2
Area Distribution Requirement 3
Area Distribution Requirement 3
   
14
Senior Year (Fall) Credits
Co-op III2

Senior Year (Spring) Credits
Senior Design II 3
Automatic Controls 4
Power Electronics 4
Engineering Elective 4
Area Distribution Requirement 3
   
18
Summer Credits
Engineering Elective 3
Engineering Elective 3
Engineering Elective 3
Area Distribution Requirement 3
Area Distribution Requirement 3
   
15

Mechanical Engineering (suggested course sequence)

Freshman Year (Fall) Credits
Calculus I 4
General Chemistry I 4
Analytical Reading and Writing 3
EPADS I 2
Information Literacy 2
Area Distribution Requirement 3
   
18
Freshman Year (Spring) Credits
Calculus II 4
Engineering Physics (Mechanics) 5
Academic Writing 3
EPADS II 2
Human Communication 3
Physical Education 1
   
18
Sophomore Year (Fall) Credits
Differential Equations 4
Statics 3
Engineering Physics (Electricity and Magnetism) 5
Area Distribution Requirement 3
Computer Applications for Engineers 2
   
17
Sophomore Year (Spring) Credits
Engineering Mathematics 4
Thermodynamics 4
Strength of Materials 3
Materials & Solids Lab 1
Electrical Circuits 3
Electronic Measurement & Signal Processing Lab 1
Engineering Career Seminar 1
Physical Education 1
   
18
Summer Credits
Co-op I2

Junior Year (Fall) Credits
Fluid Mechanics 3
Fluid Mechanics Lab 1
Dynamics and Vibration 4
Mechatronics 4
Area Distribution Requirements 6
   
18
Junior Year (Spring) Credits
Co-op II2

Summer Credits
Machine Design 4
Materials Science 3
Materials Science Lab 1
Senior Design I 3
Engineering Elective 3
   
14
Senior Year (Fall) Credits
Co-op III2

Senior Year (Spring) Credits
Senior Design II 3
Heat Transfer 3
Thermal System Design 2
Computer Control of Machines and Processes 4
Area Distribution Requirements 6
   
18
Summer Credits
Statistical Design and Process Control 3
Engineering Electives 6
Area Distribution Requirements 6
   
15

Engineering Cooperative Work Experience (Co-op)

Engineering cooperative work experience is a requirement for all engineering students at York College. Through this program, students have the opportunity to gain practical hands-on experience in industry and other engineering-related enterprises prior to graduation. After their first two years of study, students alternate academic semesters with paid, professional engineering work experience in industry. Three semesters of co-op are required for graduation. This requirement may be waived for students with a history of qualified engineering work.

The successful co-op experience is based upon the three-way interaction involving the co-op student, the employer-based engineering mentor and the student’s faculty advisor. During the student’s cooperative education career, this interaction is nurtured and documented through regular meetings with the engineering mentor, on-site visits by the faculty advisor, written assessments and evaluations by both mentor and advisor, and through the student’s co-op reports.

Students are free to choose any geographic location for co-op and are encouraged to seek co-op opportunities abroad with U.S.-based companies that carry out international engineering operations. Locally, an organization of over 24 companies (see IAC on following page) advises and supports the development of the engineering programs, and provides co-op employment opportunities for York College engineering students. Students who co-op locally have the option to use York College housing during their co-op periods, during which time standard room charges apply.

Students must register for all three co-ops. If a student performs a semester of co-op work without registering for it, credit cannot be awarded for that co-op.

In addition to helping the student prepare for more sophisticated academic work, co-op provides the student with

1. the opportunity to explore career options in a real-world context,

2. a knowledge of the world of business and work,

3. a better understanding of, and appreciation for, the linkage between coursework and engineering practice, thus contributing positively to the student’s attitude toward academic work,

4. the opportunity to develop and enhance interpersonal skills,

5. a salary to help meet college expenses,

6. a better understanding of the engineering profession through early association with practicing engineers,

7. an edge in the job market upon graduation.

Co-op wage scales and benefits are set by individual employers in accordance with current market salaries.

Partnership With Industry

Industry Advisory Council (IAC): The engineering programs at York College enjoy a close and active relationship with local industry. An IAC helps to support and implement the programs at York College. Part of the IAC charter is to provide significant capital resources for engineering laboratory facilities and scholarships, as well as co-op opportunities for York’s engineering students.

Members of the IAC include: Adhesives Research; American Hydro; BAE Systems; Black & Decker; Buchart Horn Inc/Basco Associates; Cooper Tools/Campbell Operations; Donsco, Inc.; The Engineering Society of York; FCI Electronics; Harley-Davidson, Inc.; KBA North America; Kinsley Construction Co.; LWB Refractories; Metso Minerals; New Standard Corporation; Pall Corporation; Topflight Corp; Tyco Electronics; Voith Siemens Hydro Power Generation, Inc.; Weldon Solutions, Inc; York International Corp.; and, The York Water Company.

Industrial Curriculum Advisory Board (ICAB): An outgrowth of the IAC has been the establishment of a small working group of engineers and engineering managers-active in their fields-that advise the Program Coordinators and help maintain a relevant focus for the engineering programs at York College. This group is designated as ICAB and has, as its primary tasks, the responsibility to (i) provide input in carrying out the mission, goals, and objectives of the York College engineering program, (ii) provide input related to curriculum structure, course content, and classroom and laboratory needs for the purpose of maintaining program relevancy and focus, (iii) assist in determining appropriate outcomes (and their measures) required to achieve program objectives, (iv) help assess program outcomes from an industrial point of view and assist with the use of these assessments in the continuous improvement of the program, (v) as needs arise, assume a proactive role in proposing new engineering programs-as well as alternatives to existing ones-for the purpose of both improving and expanding the base of engineering and engineering education in the York region.

Engineering Facilities

Engineering programs are facility intensive. Engineering students are continually involved in some aspect of hands-on laboratory and/or design project activity. Modern engineering laboratory equipment, computational facilities, and design-project work areas have been provided to meet individual course and laboratory needs. The goal is to provide our engineering students with access to state-of-the-art equipment and machines. The laboratory areas include the following: Design Project, Computer/

CAD, Instrumentation, Embedded Systems, Communication Systems, Power Systems, Automation & Robotics, Machine Tool and Materials Processing, Materials Science and Engineering, Solid Body Mechanics, and Thermodynamics/Fluid Mechanics/Heat Transfer.

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