EE Master's Program

General Information

The master's level program serves three essential contemporary needs:

  • Advanced Professional Development - Providing qualified graduates from accredited undergraduate engineering and computer science programs with opportunities to pursue advanced professional training
  • Industry Professional Enhancement - Enabling practicing engineers and computer scientists to strengthen their expertise by accessing cutting-edge theoretical developments and their real-world industrial applications
  • Research Foundation Building - Equipping graduate students pursuing doctoral studies and research careers with comprehensive theoretical foundations essential for advanced scholarly work

The City College offers a Professional Master's Degree in Electrical Engineering, M.E. (E.E.)

Admissions Requirements

  • Bachelor’s degree from an accredited institution of higher education with a ‘B’ average in the major field.
  • Official transcripts from all post-secondary institutions attended
  • Two letters of recommendation
  • Resume/CV
  • A personal statement that discusses the rationale for pursuing the Master’s degree in Electrical Engineering
  • International students must have a TOEFL score of 533 (PBT), 73 (IBT) or 6 (IELTS)

Degree Requirements

Professional Master's Degree
 
Engineering Core Courses 12 cr.                    
 
Four courses from one of the following concentrations (all courses are three credits):
 

A. Computer Engineering

EE G3300: Mobile Robotics

EE I2200: Image Processing

EE I6500: Neural Networks and Deep Learning

EE I5500: Introduction to Robotics, the same as

EE I5600: Autonomous Robotic Systems

EE I5700: Digital Integrated Circuits

EE I6000: Computer Communications Systems

EE I6400: Computer-Aided Digital VLSI Design

EE I6530: Artificial Intelligence for Engineering Applications

EE I6600: Communications Protocol Engineering

EE I7000: Local Area Networks

EE I7701: Secure Systems Engineering

EE I9400: High Speed Networks

 

B. Systems Engineering

EE I3301: Power Systems

EE I3303: Power Electronics

EE I6910: Renewable Energy

EE G3304: Energy Economics in Electricity Markets

EE G3305: Electric Power System Protection

EE G4004: Power System Control 1 - Generators

EE F5600: Elements of Control Theory

EE I0100: Probability and Stochastic Processes

EE I0500: Theory of Linear Systems

EE I4100: Introduction to Modern Control Theory

EE I6500: Neural Networks and Deep Learning

EE I6530: Artificial Intelligence for Engineering Applications

EE I5300: Digital Signal Processing

EE I5500: Introduction to Robotics

EE I5600: Autonomous Robotic Systems

 

C. Telecommunications Engineering

EE I0100: Probability and Stochastic Processes

EE I5200: Fiber Optic Communications I

EE I6000: Computer Communication Systems

EE I6300: Wireless Communication

EE I6530: Artificial Intelligence for Engineering Applications

EE I6600: Communications Protocol Engineering

EE I6700: IP Routing

EE I7000: Local Area Networks

EE I7701: Secure Systems Engineering

EE I8300: Fiber Optic Communications II

EE I9400: High Speed Networks

 

D. Photonics Engineering

EE I0100: Probability and Stochastic Processes

EE G6800: Introduction to Remote Sensing

EE G6902: Introduction to Earth Surveillance

EE G6903: Topics in Remote Sensing

EE I2200: Image Processing

EE I5200: Fiber Optic Communications I

EE I5800: Introduction to Lasers

EE I6200: Principles of Photonics Engineering

EE I8200: Electro-Optics

EE I8300: Fiber Optic Communications II

EE I8500: Optical Signal Processing

 

E. Electronics/Communication

EE I0100: Probability and Stochastic Processes

EE I5200: Fiber Optic Communications I 

EE I5400: Physical Electronics I

EE I5700: Digital Integrated Circuits

EE I6300: Wireless Communications

EE I8300: Fiber Optic Communications II

EE I3303: Power Electronics

 

 

 

Engineering Management Courses 3 cr.                         
 
One course from the following:
ENGR H3800: Management Concepts for Engineers
ENGR H7600: Engineering Business and Law
ENGR H8000: Decision and Planning Techniques for Engineering Management
ENGR H8500: Project Management
ENGR H9300: Economics and Investment Analysis of Engineering Projects
 
Technical Electives: 9-15 cr.       
 
 
Take courses from any of the above concentration areas, or any G0000, I0000, and J0000 courses
that may be offered except Engineering Management courses.
 
Report/Project/Thesis: 0-6 cr.           

 

 
Only one of the following courses:
EE I0000: Seminar (1 cr.)
EE I9600: Master's Report (0 cr.)
EE I9700: Master's Project (3 cr.)
EE I9900: Master's Thesis (6 cr.)
 
Total credits
30 cr.    

 

Note: A minimum GPA of 3.0 is required for graduation.
 

Requirements Regarding the Master's Degree

Requirements for Enrollment in Graduate Courses

Graduate courses are open to everyone who, in the opinion of the Associate Dean for Graduate Studies and the department concerned, is qualified by education and experience to benefit from them. Where specific courses are listed as prerequisites, equivalent knowledge or experience may be accepted instead...

Read More

 

Requirements for the Master's Degree Academic Standards

Each candidate for a master’s degree must complete at least 30 credits as approved by the department and the Dean. Some students may be required to complete satisfactorily more than 30 credits because of a lack of specific courses or inadequate preparation in a particular area of study. No course may be credited toward a degree unless specifically approved for that purpose...

Read More

Advanced Certificates in Special Topics

The Grove School of Engineering offers 12 credit (4 course) programs leading to Advanced Certificates in Special Topics. These programs are organized for degreed practicing engineers who may be entering disciplines requiring knowledge beyond their previous education, and for which they wish to prepare in a short time. Acceptable undergraduate preparation is, of course, required to enter the program.

An Advanced Certificate in Special Topics is awarded by the Grove School of Engineering on satisfactory completion of the course work (minimum GPA of 3.00). While subject to enrollment, it is expected that a sufficient number of classes will be offered each term so that the certificate work can be completed in 2 semesters.

Read More

 

Graduate Citation

Master’s graduates who have attained a GPA of 3.75 or better for the required 30 credits (taken at City University) will receive the Grove School of Engineering Graduate Citation.

The Program Overview of the Cybersecurity

As a key component of New York City’s plan to develop a pipeline of quality tech talent for local employers, City College is joining with the New York City Economic Development Corporation (NYCEDC) to build a Cybersecurity Master’s Degree Program in collaboration with private sector and government partners.  This program is part of the broader Cyber NYC initiative, a public-private partnership created to establish New York City as the global leader in cybersecurity.  At City College, the goal is to develop an industry-informed curriculum that will provide students with the practical skills required for professional success, and to integrate classroom learning with internships and other industry-supported events such as Cyberwar Week, hackathons, and speaking/networking events.  As part of the curricular development, private sector partners will collaborate with City College faculty to build elective courses for the Cybersecurity Master’s Program that address current needs in the field and provide key job skills...

Read More

Degree Requirements

Degree Requirements

Professional Master's Degree
Engineering Core Courses 12 cr.
Four courses from one of the following concentrations (all courses are three credits):

A. Computer Engineering

EE G3300: Mobile Robotics

EE I2200: Image Processing

EE I6500: Neural Networks and Deep Learning

EE I5500: Introduction to Robotics, the same as

EE I5600: Autonomous Robotic Systems

EE I5700: Digital Integrated Circuits

EE I6000: Computer Communications Systems

EE I6400: Computer-Aided Digital VLSI Design

EE I6530: Artificial Intelligence for Engineering Applications

EE I6600: Communications Protocol Engineering

EE I7000: Local Area Networks

EE I7701: Secure Systems Engineering

EE I9400: High Speed Networks

B. Systems Engineering

EE I3301: Power Systems

EE I3303: Power Electronics

EE I6910: Renewable Energy

EE G3304: Energy Economics in Electricity Markets

EE G3305: Electric Power System Protection

EE G4004: Power System Control 1 - Generators

EE F5600: Elements of Control Theory

EE I0100: Probability and Stochastic Processes

EE I0500: Theory of Linear Systems

EE I4100: Introduction to Modern Control Theory

EE I6500: Neural Networks and Deep Learning

EE I6530: Artificial Intelligence for Engineering Applications

EE I5300: Digital Signal Processing

EE I5500: Introduction to Robotics

EE I5600: Autonomous Robotic Systems

C. Telecommunications Engineering

EE I0100: Probability and Stochastic Processes

EE I5200: Fiber Optic Communications I

EE I6000: Computer Communication Systems

EE I6300: Wireless Communication

EE I6530: Artificial Intelligence for Engineering Applications

EE I6600: Communications Protocol Engineering

EE I6700: IP Routing

EE I7000: Local Area Networks

EE I7701: Secure Systems Engineering

EE I8300: Fiber Optic Communications II

EE I9400: High Speed Networks

D. Photonics Engineering

EE I0100: Probability and Stochastic Processes

EE G6800: Introduction to Remote Sensing

EE G6902: Introduction to Earth Surveillance

EE G6903: Topics in Remote Sensing

EE I2200: Image Processing

EE I5200: Fiber Optic Communications I

EE I5800: Introduction to Lasers

EE I6200: Principles of Photonics Engineering

EE I8200: Electro-Optics

EE I8300: Fiber Optic Communications II

EE I8500: Optical Signal Processing

E. Electronics/Communication

EE I0100: Probability and Stochastic Processes

EE I5200: Fiber Optic Communications I

EE I5400: Physical Electronics I

EE I5700: Digital Integrated Circuits

EE I6300: Wireless Communications

EE I8300: Fiber Optic Communications II

EE I3303: Power Electronics

Engineering Management Courses 3 cr.
One course from the following:
ENGR H3800: Management Concepts for Engineers
ENGR H7600: Engineering Business and Law
ENGR H8000: Decision and Planning Techniques for Engineering Management
ENGR H8500: Project Management
ENGR H9300: Economics and Investment Analysis of Engineering Projects
Technical Electives: 9-15 cr.
Take courses from any of the above concentration areas, or any G0000, I0000, and J0000 courses
that may be offered except Engineering Management courses.
Report/Project/Thesis: 0-6 cr.
Only one of the following courses:
EE I0000: Seminar (1 cr.)
EE I9600: Master's Report (0 cr.)
EE I9700: Master's Project (3 cr.)
EE I9900: Master's Thesis (6 cr.)
Total credits
30 cr.
Note: A minimum GPA of 3.0 is required for graduation.
For information on the Master and PhD program contact

Prof. Ahmed Mohamed
Graduate Program Director
Steinman Hall, Room 669

Phone: 212-650-6619
Fax: 212-650-8249
Email: am%6fhamed@ccny.cuny.ed %75" rel="nofollow"> amohamed@ccny.cuny.edu

Last Updated: 07/08/2025 11:06