Viterbi School of Engineering
Ming Hsieh Department of Electrical Engineering
Undergraduate Degree Requirements
Undergraduate Program Educational Objectives
The electrical engineering program objectives are designed to promote technical competence, professional development and citizenship in the global community. Graduates of the undergraduate program in electrical engineering are expected to attain the following objectives within a few years of graduation:
Technical Competence
Graduates will apply their technical skills in mathematics, science and engineering to the solution of complex problems encountered in modern electrical engineering practice.
Graduates will model, analyze, design and experimentally evaluate components or systems that achieve desired technical specifications subject to the reality of economic constraints.
Professional Development
Graduates will compete effectively in a world of rapid technological change and assume leadership roles within industrial, entrepreneurial, academic or governmental environments in the broad context of electrical engineering.
Some graduates who choose to redirect their careers will be employed in diverse fields such as healthcare, business, law, computer science, multimedia and music through graduate-level studies and the process of lifelong learning.
Citizenship in the Global Community
Graduates will have established the foundations for critical thinking that are needed to broaden or redirect their careers in diverse disciplines such as business, health care and the arts through graduate-level studies and/or the process of life-long leaning.
Graduates will adhere to highly ethical practices, and they will make exemplary engineering decisions that balance economic, environmental and societal factors for the betterment of the global community.
Undergraduate Program Criteria
The program leading to a Bachelor of Science in Electrical Engineering provides both breadth and depth across the range of engineering topics implied by the title. The curriculum includes probability and statistics, including appropriate applications; mathematics through differential and integral calculus, and advanced mathematics, such as differential equations, linear algebra, complex variables and discrete mathematics; sciences (defined as biological, chemical or physical science); and engineering topics (including computing science) necessary to analyze and design complex electrical and electronic devices, software and systems containing hardware and software components.
Bachelor of Science in Electrical Engineering
The requirement for the degree is 131 units. A cumulative grade point average of C (2.0) is required for all courses taken at USC as well as all upper division courses applied towards the major, regardless of the department in which the courses are taken. See also the common requirements for undergraduate degrees section.
| composition/writing requirements |
Units |
| WRIT 150* |
Writing and Critical Reasoning — Thematic Approaches |
4 |
| WRIT 340 |
Advanced Writing |
3 |
| pre-major requirements |
Units |
| Math Requirement |
| MATH 125 |
Calculus I |
4 |
| MATH 126 |
Calculus II |
4 |
| MATH 226 |
Calculus III |
4 |
| MATH 245 |
Mathematics of Physics and Engineering I |
4 |
| MATH 445 |
Mathematics of Physics and Engineering II |
4 |
| Physics Requirement |
| PHYS 151L** |
Fundamentals of Physics I: Mechanics and Thermodynamics |
4 |
| PHYS 152L |
Fundamentals of Physics II: Electricity and Magnetism |
4 |
| PHYS 153L |
Fundamentals of Physics III: Optics and Modern Physics |
4 |
| Biology Requirement |
| BISC 120L |
General Biology: Organismal Biology and Evolution, or |
|
| BISC 121L |
Advanced General Biology: Organismal Biology and Evolution, or |
|
| BISC 220L |
General Biology: Cell Biology and Physiology, or |
|
| BISC 221L |
Advanced General Biology: Cell Biology and Physiology |
4 |
| Chemistry Elective |
| CHEM 105aL |
General Chemistry, or |
|
| CHEM 115aL |
Advanced General Chemistry, or |
|
| MASC 110L |
Materials Science |
4 |
| major requirements |
Units |
| Engineering |
| ENGR 102 |
Engineering Freshman Academy |
2 |
| Computer Science |
| EE 355x |
Software Design for Engineers |
3 |
| Electrical Engineering |
| EE 109L |
Introduction to Embedded Systems |
3 |
| EE 105 |
Introduction to Electrical Engineering |
3 |
| EE 150L |
Engineering Computational Methods |
3 |
| EE 202L |
Linear Circuits |
4 |
| EE 301L |
Linear Systems |
4 |
| EE 330 |
Electromagnetics I |
3 |
| EE 364*** |
Introduction to Probability and Statistics for Electrical Engineering and Computer Science |
|
| Industrial and Systems Engineering |
| ISE 460 |
Engineering Economy, or |
|
| BUAD 301 |
Technology Entrepreneurship |
3 |
| Major electives |
Units |
| Electives |
See requirements for graduation |
33 |
| Total units: |
|
131 |
Requirements for Graduation: Engineering Electives
Entry-Level Electives
Students are required to take four entry-level electives from the following list: EE 209L (4), EE 241 (3), EE 322 (3), EE 337L (3), EE 338 (3), EE 348L (4), EE 354L (3).
Advanced Electives
Students must fulfill a minimum requirement of three 400-level elective courses in electrical engineering. Of these, one must be a capstone design course from the following list: EE 422x (3), EE 423Lx (3), EE 434Lx (4), EE 447Lx (4), EE 459Lx (3), EE 484x (3).
Free Electives
Free elective courses that complete the 33-unit elective requirement are to be chosen in consultation with the student’s academic adviser. Students are encouraged to pursue minor options when satisfying this requirement.
Bachelor of Science in Computer Engineering and Computer Science
Students attaining the bachelor of science degree in computer engineering and computer science would possess the scientific and engineering skills and knowledge that would enable them to design and implement computer systems that effectively and efficiently integrate developing hardware and software technologies. This degree is administered jointly by the departments of Computer Science and Electrical Engineering.
The requirement for the degree is 128 units. A cumulative grade point average of C (2.0) is required in all upper division courses applied toward the major, regardless of the department in which the courses are taken.
| composition/writing requirements (7 units) |
Units |
| WRIT 150 |
Writing and Critical Reasoning — Thematic Approaches |
4 |
| WRIT 340* |
Advanced Writing |
3 |
| General Education (24 units) |
Units |
| General education+ |
24 |
| Pre-Major Requirements (29-30 units) |
units |
| Engineering (2 units) |
| ENGR 102 |
Engineering Freshman Academy |
2 |
| Mathematics (16 units) |
| MATH 125** |
Calculus I |
4 |
| MATH 126 |
Calculus II |
4 |
| MATH 225 |
Linear Algebra and Differential Equations |
4 |
| MATH 226 |
Calculus III |
4 |
| Statistics and Probability (3-4 units) |
| EE 364 |
Introduction to Probability and Statistics for Electrical Engineering and Computer Science (3), or |
|
| MATH 407 |
Probability Theory (4) |
3-4 |
| Physics (8 units) |
| PHYS 151L** |
Fundamentals of Physics I: Mechanics and Thermodynamics, and |
4 |
| PHYS 152L |
Fundamentals of Physics II: Electricity and Magnetism; or |
4 |
| PHYS 161L |
Advanced Principles of Physics I, and |
4 |
| PHYS 162L |
Advanced Principles of Physics II |
4 |
| major requirements (51-52 units) |
Units |
| Computer Science (27 units) |
| CSCI 103L |
Introduction to Programming |
3 |
| CSCI 104L |
Data Structures and Object-Oriented Design |
4 |
| CSCI 170 |
Discrete Methods in Computer Science |
4 |
| CSCI 201L |
Principles of Software Development |
4 |
| CSCI 270 |
Introduction to Algorithms and Theory of Computing |
4 |
| CSCI 350 |
Introduction to Operating Systems |
4 |
| CSCI 353 |
Introduction to Internetworking |
4 |
| Electrical Engineering (21-22 units) |
| EE 109 |
Introduction to Embedded Systems |
3 |
| EE 209 |
Foundations of Digital System Design |
4 |
| EE 354L |
Introduction to Digital Circuits |
4 |
| EE 457 |
Computer Systems Organization |
3 |
| And two from the following courses: |
| EE 451 |
Parallel and Distributed Computation (3) |
|
| EE 454 |
Introduction to System-on-Chip (4) |
|
| EE 477L |
MOS VLSI Circuit Design (4) |
7-8 |
| Senior Design Project (3-4 units) |
| CSCI 477ab |
Design and Construction of Large Software Systems (2-2), or |
|
| EE 459L |
Embedded Systems Design Laboratory (3) |
3-4 |
| Technical electives ++ |
8 |
| Free electives |
6-9 |
| Total units |
128 |
Also listed under Computer Engineering.
Minor in Music Recording
A minor in music recording is offered through the USC Thornton School of Music to provide undergraduate students with the background necessary to enter the field of recording engineering and to familiarize them with the design needs of modern recording equipment. The minor is recommended to electrical engineering majors with extensive musical training who would like to combine their technical and musical abilities while learning the engineering applications of physical and mathematical principles to the art of music recording. See the listing under the Thornton School of Music.
Graduate Degree Requirements
Master of Science in Electrical Engineering
A minimum grade point average of 3.0 must be earned on all course work applied toward the master’s degree in electrical engineering. This average must also be achieved on all 400-level and above course work attempted at USC beyond the bachelor’s degree and through an accumulation of no more than 12 units beyond the minimum needed for the specific degree program. Transfer units count as credit (CR) toward the master’s degree and are not computed in the grade point average.
In addition to the general requirements of the Viterbi School of Engineering, the Master of Science in electrical engineering is also subject to the following requirements: (1) a total of at least 27 units is required; (2) every non-EE course for graduate credit requires prior written adviser approval recorded each semester on a special request form in the student’s department file; (3) no more than three courses (maximum 12 units) may be counted at the 400 level — at least 18 adviser-approved units must be taken at the 500 or 600 level; (4) at least 18 units must be taken in electrical engineering, those not in EE require written adviser approval and must be technical in nature; (5) to achieve a degree of breadth in their program, students are encouraged to take two technical courses outside their area of specialization but within EE; (6) at least 21 of the 27 units must be taken in the Viterbi School of Engineering; (7) units to be transferred (maximum four with adviser approval) must have been taken prior to taking classes at USC — interruption of residency is not allowed.
Aerospace Controls Option
The aerospace controls option is available as an area of emphasis for MSEE students interested in learning to apply innovative control techniques to aerospace control problems. In addition to 18 approved units of electrical engineering courses, students in this option will take at least three of the following aerospace and mechanical engineering courses.
| Aerospace Controls Courses |
units |
| AME 453 |
Engineering Dynamics |
3 |
| AME 531 |
Aerodynamics of Wings and Bodies |
3 |
| AME 532ab |
Flight Vehicle Stability and Control |
3-3 |
| AME 525 |
Engineering Analysis |
3 |
| AME 526 |
Engineering Analytical Methods |
3 |
| ASTE 580 |
Orbital Mechanics I |
3 |
Master of Science in Electrical Engineering (Computer Networks)
Under the computer networks option students must satisfy the M.S. Electrical Engineering requirements with the exception that only 15 units of EE are required. It is expected that each student in this program will take or have taken the equivalent of three of the four fundamental courses. With the exception of EE 503, the fundamental courses may also be satisfied by having passed EE placement exams. If a fourth required course is taken it can be counted toward elective credit.
| Fundamental Courses (Choose three courses) |
Units |
| CSCI 402x |
Operating Systems |
4 |
| EE 450 |
Introduction to Computer Networks (3) |
3 |
| EE 457 |
Computer Systems Organization |
3 |
| EE 503 |
Probability for Electrical and Computer Engineers (4) |
4 |
| Required Courses (Choose three courses) |
Units |
| CSCI 551 |
Computer Communications |
3 |
| EE 550 |
Design and Analysis of Computer Communication Networks |
3 |
| EE 555 |
Broadband Network Architectures |
3 |
| EE 597 |
Wireless Networks |
3 |
Suggested Elective Courses for the Computer Networks Specialization
| Courses in Electrical Engineering |
units |
| EE 512 |
Stochastic Processes |
3 |
| EE 532 |
Wireless Internet and Pervasive Computing |
3 |
| EE 535 |
Mobile Communications |
3 |
| EE 554 |
Real Time Computer Systems |
3 |
| EE 557 |
Computer Systems Architecture |
3 |
| EE 558 |
Optical Fiber Communication Systems |
3 |
| EE 579 |
Wireless and Mobile Networks Design and Laboratory |
3 |
| EE 590 |
Directed Research |
1-3 |
| EE 649 |
Stochastic network Optimization |
3 |
| EE 650 |
Advanced Topics in Computer Networks |
3 |
| EE 652 |
Low-Power Wireless Networks |
3 |
| EE 659 |
Interconnection Networks |
3 |
| Courses in Computer Science |
Units |
| CSCI 530 |
Security Systems |
4 |
| CSCI 555 |
Advanced Operating Systems |
3 |
| CSCI 558L |
Internetworking and Distributed Systems Laboratory |
3 |
| CSCI 570 |
Analysis of Algorithms |
3 |
| CSCI 694a |
Topics in Computer Networks and Distributed Systems |
3 |
| CSCI 694b |
Topics in Computer Networks and Distributed Systems |
3 |
| Any other course must be approved by a faculty adviser. Total units required for the degree is 27.
|
Master of Science in Electrical Engineering (Electric Power)
| Required Courses |
Units |
| SAE 515 |
Sustainable Infrastructure Systems |
3 |
| EE 443 |
Introduction to Power Systems |
3 |
| EE 444 |
Power Systems Technology |
3 |
| EE 521 |
Power Systems Analysis and Design |
3 |
| Elective Courses (Five Courses, TAKE AT LEAST ONE FROM EACH AREA) |
Units |
| Transmission, Distribution and Planning |
| CE 501 |
Functions of the Constructor
| 3 |
| EE 516 |
High-Voltage DC Transmission Systems |
3 |
| EE 524 |
Transients in Power Systems |
3 |
| EE 525 |
Power System Protection |
3 |
| EE 526 |
Renewable Energy in Power Systems |
3 |
| High-Voltage Equipment and Design |
| EE 515 |
High-Voltage Technology |
3 |
| EE 528 |
Power Electronics |
3 |
| Power-System Control and the Smart Grid |
|
EE 482 |
Linear Control Systems |
3 |
| EE 527 |
Net-Centric Power-System Control |
3 |
| EE 543 a |
Digital Control Systems |
3 |
| EE 585 |
Linear System Theory |
3 |
| EE 593 |
Multivariable Control |
3 |
Listing also available in the Sustainable Infrastructures Systems section.
Students may earn a specialization in multimedia and creative technologies by completing the general requirements for the Master of Science in Electrical Engineering and the following additional requirements:
- At most four units of electives can be taken outside of the Viterbi School of Engineering with adviser approval. Some examples are CTAN 452 Introduction to 3-D Computer Animation (2 units) and CTIN 483 Introduction to Game Development (4 units).
- Computer science courses that are cross-listed with EE can (but do not have to) count toward the 18 EE units. Up to nine units of other CSCI courses that either are or are not cross-listed can also be used. Multimedia and creative technologies draws heavily on concepts and techniques from computer science.
- Students must include the following three courses in their program
| EE 483 |
Introduction to Digital Signal Processing |
3 |
| EE 519 |
Speech Recognition and Processing for Multimedia |
3 |
| EE 569 |
Introduction to Digital Image Processing |
3 |
- A course can be waived if a student can demonstrate equivalent knowledge of the material and if the course instructor will certify it.
- Students must include six courses from the following list of courses in their programs for a total of 18 units.
Approved Courses for the Multimedia Specialization
| Courses in Electrical Engineering |
units |
| EE 450 |
Introduction to Computer Networks |
3 |
| EE 522 |
Immersive Audio Signal Processing |
3 |
| EE 555 |
Broadband Network Architectures |
3 |
| EE 577a |
VLSI System Design |
3 |
| EE 586L |
Advanced DSP Design Laboratory |
4 |
| EE 596 |
Wavelets |
3 |
| EE 619 |
Advanced Topics in Automatic Speech Recognition |
3 |
| EE 669 |
Multimedia Data Compression |
3 |
| Courses in Computer Science |
Units |
| CSCI 455x |
Introduction to Programming Systems Design |
4 |
| CSCI 485 |
File and Database Management |
4 |
| CSCI 551 |
Computer Communications |
4 |
| CSCI 571 |
Web Technologies |
4 |
| CSCI 574 |
Computer Vision |
3 |
| CSCI 576 |
Multimedia Systems Design |
4 |
| CSCI 580 |
3-D Graphics and Rendering |
4 |
| CSCI 582 |
Geometric Modeling |
3 |
| CSCI 585 |
Database Systems |
4 |
| Courses from the School of Cinematic Arts |
Units |
| CTAN 452 |
Introduction to 3-D Computer Animation |
2, max 4 |
| CTIN 483 |
Introduction to Game Development |
4 |
| Course in Information Technology |
Units |
| ITP 411x |
Multimedia and Video Production |
3 |
- Students may replace courses in the above list with a combined maximum of multimedia-related EE 599 or CSCI 599 Special Topics courses in their programs. Every course requires prior approval from the faculty adviser, recorded each semester on the plan of study form.
- Students may include a maximum of 6 units of EE 590 Directed Research in their programs. Before registering for these units, the faculty adviser must approve a written description of the intended multimedia research project signed by the faculty member who will supervise the student.
- Students entering this program are expected to have already completed, either at USC or at another institution, formal course work equivalent to USC course EE 364 Introduction to Probability and Statistics for Electrical Engineering. If an approved course has EE 441 as a prerequisite, then the student must first take and pass the placement examination that is given each semester for EE 441. See ee.usc.edu.
- Although not required, students should be proficient in C or C++ programming, at the level taught in CSCI 455x.
- Although not required, ITP 411x Multimedia and Video Production (3 units) will provide the student with hands-on experience in using multimedia application tools. This will help the student prepare a portfolio, which is expected by the industry from students who major in a multimedia program.
Master of Science in Electrical Engineering (VLSI Design)
The Master of Science in Electrical Engineering (VLSI design) is earned by successfully completing the normal requirements for the Master of Science in electrical engineering, with the following additional required courses. No more than three courses (maximum 12 units) may be counted at the 400 level — at least 18 adviser-approved units must be taken at the 500 or 600 level.
| Required Courses |
Units |
| EE 536a |
Mixed-Signal Integrated Circuit Design |
3 |
| EE 577a |
VLSI System Design |
3 |
| EE 536b |
Mixed-Signal Integrated Circuit Design, or |
|
| EE 577b |
VLSI System Design |
3 |
| EE 552 |
Asynchronous VLSI Design |
3 |
| If a student chooses to take EE 536b as well as EE 577b, the student may either count EE 536b as one of the courses for Circuits and Devices or EE 577b as one of the courses for CAD/Test or Architecture. |
| VLSI Elective Courses (TAKE TWO from one area, and ONE FROM another AREA) |
Units |
| CAD/Test |
| CSCI 455x |
Introduction to Programming Systems Design |
4 |
| EE 560L |
Digital System Design-Tools and Techniques |
3 |
| EE 577b |
VLSI System Design (see note above) |
3 |
| EE 658 |
Diagnosis and Design of Reliable Digital Systems |
3 |
| EE 680 |
Computer-Aided Design of Digital Systems I |
3 |
| EE 681 |
Computer-Aided Design of Digital Systems II |
3 |
| Circuits and Devices |
| EE 448L |
Communication Electronics |
4 |
| EE 504L |
Solid-State Processing and Integrated Circuits Laboratory |
3 |
| EE 536b |
Mixed-Signal Integrated Circuit Design (see note above) |
3 |
| EE 537 |
Modern Solid-State Devices |
3 |
| EE 630 |
NEED TO FIND ENTRY NOT IN COURSE SECTION |
3 |
| Architecture |
| CSCI 455x |
Introduction to Programming Systems Design |
4 |
| CSCI 570 |
Analysis of Algorithms |
3 |
| EE 557 |
Computer Systems Architecture |
3 |
| EE 560L |
Digital System Design-Tools and Techniques |
3 |
| EE 577b |
VLSI System Design (see note above) |
3 |
| EE 659 |
Interconnection Networks |
3 |
| EE 677 |
VLSI Architectures and Algorithms |
3 |
| With explicit approval of a faculty adviser, EE 599 Special Topics and/or 3 units of EE 590 Directed Research may be used to meet requirements for any of the approved areas. |
| Elective Courses |
Units |
| EE 501 |
Solid State |
3 |
| EE 502 |
Advanced Solid State |
3 |
| EE 504L |
Solid-State Processing and Integrated Circuits Laboratory |
3 |
| EE 506 |
Semiconductor Physics |
3 |
| EE 540 |
Introduction to Quantum Electronics |
3 |
| EE 554 |
Real Time Computer Systems |
3 |
| EE 560L |
Digital System Design-Tools and Techniques |
3 |
| EE 590 |
Directed Research |
1-3 |
| EE 601 |
Advanced Semiconductor Device Physics |
3 |
| EE 677 |
VLSI Architectures and Algorithms |
3 |
| Additional technical electives must be approved by the adviser. |
Master of Science in Electrical Engineering (Wireless Health Technology)
The Master of Science in Electrical Engineering (Wireless Health Technology) reflects a partnership between the Viterbi School of Engineering, the Keck School of Medicine, and other institutions engaged in health care research. The program of study features targeted engineering courses, a rigorous exposure to general medicine, and relevant internship practice (a total of 29-32 units).
| Required Courses (20 units) |
units |
| EE 450 |
Introduction to Computer Networks |
3 |
| EE 579 |
Wireless and Mobile Networks Design and Laboratory |
3 |
| MEDS 530abc |
Foundations of Medicine, Anatomy, Physiology, and Pathology |
12 |
| MEDS 597ab |
Health Technology Internship |
1-1 |
| Take three electives from the following list (9-12 units) |
| CSCI 545 |
Robotics |
4 |
| CSCI 561 |
Foundations of Artificial Intelligence |
4 |
| EE 503 |
Probability for Electrical and Computer Engineers |
4 |
| EE 519 |
Speech Recognition and Processing for Multimedia |
3 |
| EE 535 |
Mobile Communications |
3 |
| EE 550 |
Design and Analysis of Computer Communication Networks |
3 |
| EE 559 |
Mathematical Pattern Recognition |
3 |
| EE 564 |
Digital Communication and Coding Systems |
3 |
| EE 565a |
Information Theory |
3 |
| EE 567 |
Communication Systems |
3 |
| MEDS 500 |
Basic Concepts in Global Health |
4 |
| MEDS 501 |
Critical Issues in Global Health |
4 |
| MEDS 502 |
Global Epidemiology of Diseases and Risk Factors |
4 |
| Total: |
|
29-32 units |
Students are expected to have a background in linear algebra equivalent to EE 441 and experience with a programming language such as C or C++. Admitted students who do not meet prerequisites by placement examination will be assigned courses to complete the deficiencies.
Master of Science in Electrical Engineering (Wireless Networks)
The Master of Science in Electrical Engineering (Wireless Networks) is a unique interdisciplinary degree program that prepares graduates for the design and improvement of future wireless networks such as the “Internet of Things.” The program combines courses related to radio hardware, transmission techniques, the medium-access control layer, networking, applications and standards.
No more than three courses (maximum 12 units) may be counted at the 400 level — at least 18 adviser-approved units must be taken at the 500 or 600 level.
| REQUIRED COURSES (15 UNITS) |
Units |
| CSCI 402 |
Operating Systems |
4 |
| EE 503 |
Probability for Electrical and Computer Engineers |
4 |
| EE 511 |
Simulation Methods for Stochastic Systems |
1 |
| EE 535 |
Mobile Communications |
3 |
| EE 597 |
Wireless Networks |
3 |
| ELECTIVE COURSES (12-14 UNITS, AT LEAST ONE COURSE FROM TWO AREAS) |
Units |
| Transmission Techniques and Signal Processing |
| EE 483 |
Introduction to Digital Signal Processing |
3 |
| EE 558 |
Optical Fiber Communication Systems |
3 |
| EE 564 |
Digital Communication and Coding Systems |
3 |
| EE 583 |
Statistical Signal Processing |
3 |
| EE 586L |
Advanced DSP Design Laboratory |
4 |
| Architectures, Protocols, and Applications |
| EE 519 |
Speech Recognition and Processing for Multimedia |
3 |
| EE 532 |
Wireless Internet and Pervasive Computing |
3 |
| EE 550 |
Design and Analysis of Computer Communication Networks |
3 |
| EE 555 |
Broadband Network Architectures |
3 |
| EE 579 |
Wireless and Mobile Networks Design and Laboratory |
3 |
| EE 652 |
Low-Power Wireless Networks |
3 |
| Communication Hardware and Design |
| EE 448L |
Communication Electronics |
4 |
| EE 541 |
Radio Frequency Filter Design |
3 |
| EE 544 |
Radio Frequency Systems and Hardware |
3 |
Note: This program assumes prerequisite preparation in the area of computer networks. Students who do not meet this requirement or who do not pass a related placement exam will be required to take EE 450 Introduction to Computer Networks.
Master of Science in Computer Engineering
The Master of Science in Computer Engineering is earned by completing an integrated program of at least 27 units of approved course work in computer engineering and computer science. No more than three courses (maximum 12 units) may be counted at the 400 level — at least 18 adviser-approved units must be taken at the 500 or 600 level.
All applicants must have taken the entrance requirement courses (or equivalent in other institutions) in order to be admitted to the program. Entrance requirement course credit cannot be applied toward the degree. A fundamental course may be waived by taking a placement exam. In case a placement exam is not offered, a fundamental course may be waived by a designated faculty member upon proof (in the form of prior course work or a placement examination, etc.) that the student already has equivalent knowledge of the course material. At least 18 units must be taken in electrical engineering, 15 of which must be taken at USC. Units taken outside of electrical engineering or computer science must be approved in advance by a computer engineering adviser and must be substantive in content and related to the degree objective. Up to 3 units of Directed Research (EE 590) with a computer engineering faculty member may be applied toward the degree.
| Entrance Requirement Courses |
Units |
| CSCI 455x |
Introduction to Programming Systems Design |
4 |
| EE 357 |
Basic Organization of Computer Systems |
3 |
| Students must take or waive all four of the following fundamental courses (with the option of EE 450 or EE 503): |
| Fundamental Courses |
Units |
| CSCI 402x |
Operating Systems |
4 |
| EE 450 |
Introduction to Computer Networks (3), or |
|
| EE 503 |
Probability for Electrical and Computer Engineers (4) |
3-4 |
| EE 457 |
Computer Systems Organization |
3 |
| EE 477L |
MOS VLSI Circuit Design |
4 |
| Students must take at least two of the following core courses (with the option of EE 550 or EE 555): |
| Core Courses |
Units |
| EE 550 |
Design and Analysis of Computer Communication Networks, or |
|
| EE 555 |
Broadband Network Architectures |
3 |
| EE 557 |
Computer Systems Architecture |
3 |
| EE 577a |
VLSI System Design |
3 |
| Students must take at least 6 units from the following list of elective courses (cannot overlap with the core courses): |
| Computer Science: CSCI 545, CSCI 546, CSCI 547, CSCI 551, CSCI 555, CSCI 558L, CSCI 561, CSCI 565, CSCI 570, CSCI 584, CSCI 585, CSCI 595 |
| Electrical Engineering: EE 532, EE 536ab, EE 550, EE 552, EE 554, EE 555, EE 557, EE 558, EE 560L, EE 577ab, EE 579, EE 630, EE 650, EE 652, EE 653, EE 657, EE 658, EE 659, EE 677, EE 680, EE 681 |
A minimum grade point average of 3.0 (A = 4.0) must be earned on all course work applied toward the master’s degree in computer engineering. This average must also be achieved on all 400-level and above course work attempted at USC beyond the bachelor’s degree. Transfer units which count as credit (CR) toward the master’s degree are not computed in the grade point average. All other Viterbi School of Engineering requirements for the Master of Science apply.
Financial Engineering
Electrical Engineering Building 100
(213) 740-4447
FAX: (213) 740-4449
Email:
eesystem@usc.eduFaculty Contact: Professor Petros Ioannou, ioannou@usc.edu
Master of Science in Financial Engineering
The objective of this program is the training of graduate students with engineering, applied mathematics or physics backgrounds in the application of mathematical and engineering tools to finance. Financial engineering is a multidisciplinary education program that involves the Viterbi School of Engineering, the USC Marshall School of Business and the USC Dornsife College of Letters, Arts and Sciences (Department of Economics). Financial engineering uses tools from finance and economics, engineering, applied mathematics and statistics to address problems such as derivative securities valuation, strategic planning and dynamic investment strategies, and risk management, which are of interest to investment and commercial banks, trading companies, hedge funds, insurance companies, corporate risk managers and regulatory agencies.
A minimum grade point average of 3.0 must be earned on all course work applied toward the master’s degree in financial engineering. Transfer units count as credit (CR) toward the master’s degree and are not computed in the grade point average. In addition to the general requirements of the Viterbi School of Engineering, the Master of Science in Financial Engineering is also subject to the following requirements: (1) a total of at least 30 units is required; (2) every plan of study requires prior written approval by the contact faculty of the program; (3) units to be transferred (maximum of four with adviser approval) must have been taken prior to taking classes at USC; interruption of residency is not allowed.
Curriculum
The degree requirements include six required courses and two courses from each of two lists of electives for a minimum total of 30 units.
| Required |
Units |
| GSBA 548 |
Corporate Finance |
3 |
| FBE 559 |
Management of Financial Risk, or |
|
| ISE 563 |
Financial Engineering |
3 |
| EE 503 |
Probability for Electrical and Computer Engineers |
4 |
| EE 512 |
Stochastic Processes |
3 |
| EE 518 |
Mathematics and Tools for Financial Engineers |
4 |
| EE 590 |
Directed Research, or |
|
| ENGR 596 |
Internship in Engineering |
1 |
| Electives (adviser approved) |
Units |
| Finance, Business, Economics Area: |
| Two courses (6-7 units) from the following: |
| ECON 500 |
Microeconomic Analysis and Policy |
4 |
| ECON 501 |
Macroeconomic Analysis and Policy |
4 |
| ECON 613 |
Econometric and Financial Time Series I |
4 |
| FBE 529 |
Financial Analysis and Valuation |
3 |
| FBE 535 |
Applied Finance in Fixed Income Securities |
3 |
| FBE 540 |
Hedge Funds |
3 |
| FBE 543 |
Forecasting and Risk Analysis |
3 |
| FBE 554 |
Trading and Exchanges |
3 |
| FBE 555 |
Investment Analysis and Portfolio Management |
3 |
| FBE 589 |
Mortgages and Mortgage-Backed Securities and Markets |
3 |
| ISE 566 |
Financial Accounting Analysis for Engineering |
3 |
| Optimization, Simulations, Stochastic Systems: |
| Two courses (6-7 units) from the following: |
| CE 645 |
Uncertainty Modeling and Stochastic Optimization |
3 |
| CSCI 455x |
Introduction to Programming Systems Design |
4 |
| CSCI 570 |
Analysis of Algorithms |
4 |
| EE 500 |
Neural and Fuzzy Systems |
3 |
| EE 517 |
Statistics for Engineers |
3 |
| EE 553* |
Computational Solution of Optimization Problems |
3 |
| EE 556 |
Stochastic Systems |
3 |
| EE 562a |
Random Processes in Engineering |
3 |
| ISE 520* |
Optimization: Theory and Algorithms |
3 |
| ISE 536 |
Linear Programming and Extensions |
3 |
| ISE 539 |
Stochastic Elements of Simulation |
3 |
Dual Degree Program (M.S., Electrical Engineering / M.S., Engineering Management)
The Ming Hsieh Department of Electrical Engineering in conjunction with the Daniel J. Epstein Department of Industrial and Systems Engineering offers a program leading to the degree of Master of Science in Electrical Engineering/Master of Science in Engineering Management. This program is designed for graduate electrical engineers whose career objectives lead to increasing technical management responsibilities.
In addition to the general requirements of the USC Viterbi School of Engineering, the dual degree of Master of Science in Electrical Engineering and Master of Science in Engineering Management is also subject to the following requirements:
(1) All applicants must meet the admissions requirements of both the Department of Electrical Engineering and the Department of Industrial and Systems Engineering; (2) a total of at least 48 units is required; (3) 24 of these must satisfy the requirements of the master’s degree in electrical engineering; (4) 21 units must satisfy the required courses towards the master’s degree in engineering management; (5) 3 units of electives approved by the program director or adviser; (6) all courses counted towards the dual degree must be at the 500 level, except those 400-level courses required by the master’s degree in electrical engineering.
Second Master’s Degree
A graduate student who already holds a master’s degree from USC may apply up to 4 units toward a second master’s degree with the permission of the chair of the major department. All credit, including the transferred units, must be earned within seven calendar years.
For students who earned their first master’s degree at another institution, no course work may be repeated from the first program of study and no unit credit from the first program of study may be counted toward the second master’s degree.
Engineer in Electrical Engineering
Requirements for the Engineer in Electrical Engineering are the same as those listed under Engineer degree, except that both areas of concentration must be in electrical engineering.
Doctor of Philosophy in Electrical Engineering
The Doctor of Philosophy with a major in electrical engineering is awarded in strict conformity with the general requirements of the USC Graduate School. See general requirements for graduate degrees. Departmental requirements for this degree consist of a concentrated program of study and research and a dissertation. Each student wishing to undertake a doctoral program must first be admitted to the program and then take the screening examination. This examination will emphasize comprehension of fundamental material in one of the 13 specialized areas of electrical engineering listed below. Listed under each area are courses offered by the Department of Electrical Engineering, which will provide basic background for the examination and partial preparation for the dissertation. Not all courses listed are required for preparation for the screening examination in any specific area. Consult a separately published guide, available from the department office, for more information concerning examination content and scheduling. Further guidance concerning the full completion of courses, including those given outside the department, which are recommended for preparation for the dissertation, can be obtained from the faculty in each technical area.
Doctor of Philosophy in Computer Engineering
The requirements for the Doctor of Philosophy (Ph.D.) in Computer Engineering are in strict conformity with the requirements of the Graduate School. Program requirements for the Ph.D. in Computer Engineering are the same as those for the Ph.D. in Electrical Engineering except that the major field is computer engineering. See general requirements for graduate degrees.
Screening and qualifying examinations are administered by the computer engineering faculty. Students should contact the Electrical Engineering Systems Department Office for further information.
| Course Requirements |
units |
| The following course work must be completed; these courses can be included in the 60-unit course work requirement: |
| Take two courses from theory area and four courses from the other three areas (hardware, software and systems), including at least one course from each area to total six courses. |
| Theory Area Courses |
| CSCI 570 |
Analysis of Algorithms |
4 |
| EE 503 |
Probability for Electrical and Computer Engineers |
4 |
| EE 562 |
Random Processes in Engineering |
3 |
| EE 565 |
Information Theory |
3 |
| MATH 410 |
Fundamental Concepts of Modern Algebra, or |
|
| MATH 425a |
Fundamental Concepts of Analysis |
4 |
| MATH 432 |
Applied Combinatorics, or |
|
| MATH 533 |
Combinatorical Analysis and Algebra |
4 |
| Hardware Area Courses |
| EE 536a |
Mixed Signal Integrated Circuit Design |
4 |
| EE 552 |
Asynchronous VLSI Design |
3 |
| EE 557 |
Computer Systems Architecture |
3 |
| Software Area Courses |
| CSCI 565 |
Compiler Design, or |
|
| CSCI 595 |
Advanced Compiler Design |
4 |
| CSCI 577a |
Software Engineering |
4 |
| CSCI 585 |
Database Systems |
4 |
| Systems Area Courses |
| CSCI 551 |
Computer Communications |
4 |
| CSCI 555L |
Advanced Operating Systems |
4 |
| CSCI 561 |
Foundations of Artificial Intelligence |
4 |
| EE 543a |
Digital Control Systems |
3 |
| EE 554 |
Real Time Computer Systems |
3 |
| EE 550 |
Design and Analysis of Computer Communication Networks, or |
|
| EE 555 |
Broadband Network Architectures |
3 |
| EE 569 |
Introduction to Digital Image Processing |
3 |
