Undergraduate Course Catalog 2006-2007
College of Engineering and Physical Sciences
» http://www.ceps.unh.edu
Electrical and Computer Engineering (ECE)
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Chairperson: John R. LaCourse
Professor: Kent A. Chamberlin, Christian P. De Moustier, L. Gordon Kraft, John R. LaCourse, W. Thomas Miller III, Andrzej Rucinski, Kondagunta U. Sivaprasad
Affiliate Professor: Ted Kochanski, Robert M. O'Donnell, Stuart M. Selikowitz
Associate Professor: Michael J. Carter, Allen D. Drake, Richard A. Messner
Research Associate Professor: William H. Lenharth
Affiliate Associate Professor: Charles H. Bianchi, Raymond J. Garbos, Paul W. Latham II
Assistant Professor: Andrew L. Kun, Jianqiu Zhang, Kuan Zhou
Research Assistant Professor: Brian P. Calder
Instructor: Francis C. Hludik Jr.
Senior Lecturer: Barbara Dziurla Rucinska
Lecturer: Neda M. Pekaric-Nad
The Department of Electrical and Computer Engineering offers a B.S. in
electrical engineering degree program that is accredited by the
Engineering Accreditation Commission of ABET, 111 Market Place, Suite
1050, Baltimore, MD 21202-4012, telephone (401) 347-7700.
ECE Department Mission
The mission of the Department of Electrical and Computer Engineering (ECE) is fourfold:
• to provide educational programs in electrical
engineering and computer engineering and related fields at the
bachelor’s, master’s, and doctoral levels of high quality and
sufficient breadth and depth to serve industry, government and academic
institutions of our state and nation;
• to conduct research and pursue scholarship to
advance knowledge and apply that knowledge in areas relevant to our
state and nation in order to meet the demands of the coming information
age and global competition;
• to serve the state and nation by making available
the accumulated expertise, knowledge and experience of the faculty to
industry and government;
• to continually assess our programs to ensure market
needs and to develop strategies to optimize student retention.
The EE and CE programs endeavor to provide a firm foundation in
fundamentals, while also giving student exposure to current
technologies for design and implementation. They strive for a
balance between theory, laboratory and design experience. Furthermore,
the programs foster teamwork and project management skills.
The graduate ECE program offers studies leading to the degrees of
master of science in electrical engineering and the doctor of
philosophy in engineering with an option in electrical engineering. All
graduate students are expected to participate in research activities as
an integral part of their graduate education. Creative
research/scholarship is a vital component of the ECE department’s
mission. The importance of research is equal and complementary to the
function of teaching at the graduate level.
The department recognizes the need to conduct periodic reviews and
adjustments to meet the current and projected needs of the state and
nation according to its mission objectives.
Our mission was approved by the ECE faculty in March 2001, approved by
the ECE Student Advisory Board in October 2001, and ratified by the ECE
Industrial Advisory Board in April 2002.
Electrical Engineering and Computer Engineering Program Educational Objectives
The Department of Electrical and Computer Engineering has adopted a set
of program educational objectives that consists of statements
describing the expected accomplishments of graduates during the first
several years following graduation from either program. The current
electrical engineering educational program objectives and computer
engineering educational program objectives are:
• graduates will function at a technically
outstanding level in formulating and solving problems in electrical
engineering;
• graduates will produce competent written and oral reports, and provide project management and leadership;
• through a thorough grounding in engineering
fundamentals, graduates will be prepared for a successful engineering
career amid future technological changes;
• through a well-rounded education, graduates are
able respond to changing career paths as well as maintaining an
interest in life-long learning together with the ability to advance
professionally;
• graduates will be creative when dealing with
contemporary issues facing society in the local, global, historical,
social, economic, and political contexts as they relate to electrical
engineering;
• graduates will be able to design, prototype, and
test electrical and computer engineering designs using state of the art
test equipment in the laboratory environment.*
The electrical and computer engineering educational program objectives
were approved by the ECE faculty in March 2001, approved by the ECE
Student Advisory Board in November 2001, and ratified by the ECE
Industrial Advisory Board in March 2002.
Electrical Engineering and Computer Engineering Program Educational Outcomes
The Department of Electrical and Computer Engineering has adopted a set
of program educational outcomes that consists of statements describing
what students are expected to know and are able to do by the time of
graduation, the achievement of which indicates that the student is
equipped to achieve the program objectives. The current electrical
engineering educational program outcomes and computer engineering
program educational outcomes are:
• an ability to apply knowledge of mathematics, science, and engineering;
• an ability to design and conduct experiments, as well as to analyze and interpret data;
• an ability to design a system, component, or process to meet desired needs;
• an ability to function on multidisciplinary teams;
• an ability to identify, formulate, and solve engineering problems;
• an ability to communicate effectively;
• an understanding of professional and ethical responsibility;
• the broad education necessary to understand the
impact of engineering solutions in a global and societal context;
• a recognition of the need for, and ability to engage in, life-long learning;
• a knowledge of contemporary issues;
• an ability to use techniques, skills, and modern engineering tools necessary for engineering practice.
Electrical and computer program educational outcomes were approved by
the ECE faculty in March 2001, approved by the ECE Student Advisory
Board in October 2001, and ratified by the ECE Industrial Advisory
Board in March 2002.
Students contemplating a decision between the Electrical Engineering
and Computer Engineering degree programs should consider both the
similarities and differences of the two programs. Both curricula
require the same foundational courses in mathematics, physics, analog
and digital electronic circuits, and a capstone senior design project
of the student's choice. The Computer Engineering degree program
requires additional fluency in software development and advanced
computer system and hardware design. The Electrical Engineering degree
program requires advanced study in analog and mixed-signal electronic
circuit and system analysis and design. The University's general
education requirements are identical for both degree programs.
Electrical Engineering Program
Electrical engineers design,
develop, and produce the electrical and electronic systems upon which
modern society has come to depend: basic infrastructure, such as the
electric power grid and fiber optic communication lines; public
conveniences, such as mag lev transporters and LED signs; consumer
products, such as iPods and MP3 players; personal communication
devices, such as cell phones and BlackBerries©; military systems, such
as rail guns and laser weapons; instruments that can image the ocean
floor or analyze the earth's atmosphere from satellites; medical
diagnostic machines like CAT and MRI scanners. Almost every facet of
modern life is touched by the work of electrical engineers.
At UNH, the cornerstone of the electrical engineering program is the
involvement of students in the solution of real-world problems.
Students electing this major gain knowledge of advanced electronic
circuit and system design through the use of computer-aided design
tools, hardware circuit prototyping, and hands-on laboratory testing.
In addition to general University requirements, the department has a number of grade-point average and credit requirements.
1. For an electrical engineering major to enter the
junior year and take any of the first-term junior courses (ECE 603, ECE
617, ECE 633, or ECE 651), he or she must have taken, and achieved a
cumulative grade point average of 2.10 in, all of the following freshman
and sophomore courses: MATH 425, 426, 527; PHYS 407, 408; and ECE 541,
543, 544, 548, and 562.
2. Any electrical engineering major whose cumulative
grade-point average in ECE courses is less than 2.00 during any three
semesters will not be allowed to continue as an electrical engineering
major.
3. Electrical engineering majors must achieve a 2.00
grade-point average in ECE courses as a requirement for graduation.
To make an exception to any of these departmental requirements based on
extenuating circumstances, students must petition the department’s
undergraduate committee. Mindful of these rules, students, with their
advisers’ assistance, should plan their programs based on the
distribution of courses in the chart below for a total of at least 132
credits.
Curriculum for B.S. in Electrical Engineering
Freshman Year
Abbreviation | Course Number | Title | Fall | Spring |
---|---|---|---|---|
MATH | 425 | Calculus I | 4 | - |
CS | 410 | Introduction to Scientific Programming** | 4 | - |
ECE | 401 | Perspectives in Electrical and Computer Engineerin | 4 | - |
CHEM | 405 | General Chemistry | 4 | - |
MATH | 426 | Calculus II | - | 4 |
General Education Elective** | - | 4 | ||
PHYS | 407 | Physics I | - | 4 |
ENGL | 401 | First-Year Writing | - | 4 |
Total | 16 | 16 |
Sophomore Year
Abbreviation | Course Number | Title | Fall | Spring |
---|---|---|---|---|
PHYS | 408 | Physics II | 4 | - |
MATH | 527 | Differential Equations with Linear Algebra | 4 | - |
ECE | 541 | Electrical Circuits | 4 | - |
ECE | 543 | Introduction to Digital Systems | 4 | - |
ME | 523 | Introduction to Statics and Dynamics | - | 3 |
ECE | 544 | Engineering Analysis | - | 4 |
ECE | 548 | Electronic Design I | - | 4 |
ECE | 562 | Computer Organization | - | 4 |
Total | 16 | 15 |
Junior Year
Abbreviation | Course Number | Title | Fall | Spring |
---|---|---|---|---|
EE | 617 | Junior Lab I | 4 | - |
EE | 651 | Electronic Design II | 4 | - |
EE | 633 | Signals and Systems I | 3 | - |
ECE | 603 | Electromagnetic Fields and Waves | 4 | - |
General Education Elective | 4 | - | ||
ECE | 618 | Junior Laboratory II | - | 4 |
ECE | 634 | Signals and Systems II | - | 3 |
ECE | 647 | Random Processes and Signals in Engineering | - | 3 |
EE | 668 | Fundamentals of Computer Engineering | - | 4 |
General Education Elective | - | 4 | ||
Total | 19 | 18 |
Senior Year
Abbreviation | Course Number | Title | Fall | Spring |
---|---|---|---|---|
Professional Elective* | 4 | - | ||
Professional Elective* | 4 | - | ||
General Education Electfive | 4 | - | ||
General Education Elective | 4 | - | ||
ECE | 791 | Senior Project I | 2 | - |
Professional Elective* | - | 4 | ||
Professional Elective* | - | 4 | ||
General Education Elective | - | 4 | ||
ECE | 792 | Senior Project II | - | 2 |
Total | 18 | 14 |
*Professional electives normally consist of 700-level ECE courses. Each
course must carry at least three credits, and no more than one can be
an independent study, special topics, or project course. An alternative
is a student-designed plan approved by the ECE undergraduate committee.
**Students who wish to preserve the option of transferring to the
computer engineering major without incurring a delay in graduation
should consult with their academic adviser before electing these
courses. It is recommended that such students take CS 415, Introduction
to Computer Science I in the fall semester and CS 416, Introduction to
Computer Science II in the spring semester in place of the listed
courses.
Computer Engineering Program
Computers have become embedded in virtually every engineering system.
Computer engineering, traditionally a subset of electrical engineering,
is a rapidly growing field that emphasizes the design, interfacing,
hardware/software tradeoffs, and real-time applications of computers.
Students who elect this major will gain a knowledge of both hardware
and software concepts, and will learn to design, build and test systems
containing digital computers.
In addition to general University requirements, the department has a number of grade-point average and credit requirements.
1. For a computer engineering major to enter the
junior year and take any of the first-term junior courses, he or she
must have taken, and achieved a cumulative grade point average of 2.10
in all of the following freshman and sophomore courses: MATH 425, 426,
527; PHYS 407, 408; CS 415, 416, 515; and ECE 543, ECE 544, ECE 562,
and ECE 583.
2. Any computer engineering major whose cumulative
grade-point average in ECE and CS courses is less than 2.0 during any
three semesters will not be allowed to continue as a computer
engineering major.
3. Computer engineering majors must achieve a 2.00
grade-point average in ECE courses as a requirement for graduation.
To make an exception to any of these departmental requirements based on
extenuating circumstances, students must petition the department’s
undergraduate committee. Mindful of these rules, students, with their
advisers’ assistance, should plan their programs based on the
distribution of courses in the chart below for a total of at least 130
credits.
Curriculum for B.S. in Computer Engineering
Freshman Year
Abbreviation | Course Number | Title | Fall | Spring |
---|---|---|---|---|
MATH | 425 | Calculus I | 4 | - |
CS | 415 | Intro to Computer Science I | 4 | - |
ECE | 401 | Perspectives in Electrical and Computer Engineerin | 4 | - |
General Education Elective | 4 | - | ||
MATH | 426 | Calculus II | - | 4 |
CS | 416 | Intro to Computer Science II | - | 4 |
ECE | 543 | Intro to Digital Systems | - | 4 |
ENGL | 401 | First-Year Writing | - | 4 |
Total | 16 | 16 |
Sophomore Year
Abbreviation | Course Number | Title | Fall | Spring |
---|---|---|---|---|
PHYS | 407 | Physics I | 4 | - |
MATH | 527 | Differential Equations with Linear Algebra | 4 | - |
CS | 515 | Data Structures | 4 | - |
ECE | 562 | Computer Organization | 4 | - |
PHYS | 408 | Physics II | - | 4 |
ECE | 544 | Engineering Analysis | - | 4 |
CS | 620 | Operating Systems Fundamentals | - | 4 |
ECE | 583 | Design with Programmable Logic | - | 4 |
Total | 16 | 16 |
Junior Year
Abbreviation | Course Number | Title | Fall | Spring |
---|---|---|---|---|
ECE | 541 | Electrical Circuits | 4 | - |
ECE | 633 | Signals and Systems I | 3 | - |
ECE | 649 | Embedded Microcomputer Based Design | 4 | - |
General Education Elective | 4 | - | ||
ECE | 548 | Electronic Design I | - | 4 |
ECE | 603 | Electromagnetic Fields and Waves | - | 4 |
ECE | 647 | Random Processes and Signals in Engineering | - | 3 |
General Education Elective | - | 4 | ||
Total | 15 | 15 |
Senior Year
Abbreviation | Course Number | Title | Fall | Spring |
---|---|---|---|---|
Professional Elective* | 4 | - | ||
ECE | 734 | Network Data Communications | 4 | - |
ECE | 714 | Intro to Digital Signal Processing | 4 | - |
General Education Elective | 4 | - | ||
ECE | 791 | Senior Project I | 2 | - |
Professional Elective* | - | 4 | ||
Professional Elective* | - | 4 | ||
General Education Elective | - | 4 | ||
General Education Elective | - | 4 | ||
ECE | 792 | Senior Project II | - | 2 |
Total | 18 | 18 |
* Three professional electives must be selected from the following categories of courses:
At least one from: ECE 711, ECE 715, ECE 717
No more than one from: DS 630, ADMIN 640, DS 798C, DS 781, DS 765, ECE
634, ECE 651, ECE 7XX, CS 620, CS 658, CS 659, CS 671, CS 7XX