BSc in Electrical Engineering – Communication Engineering
3.5 to 4 Years
128 hours Credit Hours
English
Fall & Spring
Overview
The Communication Engineering program prepares engineers to design, develop, implement, and maintain modern communication systems and networks. Graduates are equipped with the skills and knowledge needed to work in diverse roles within government and private organizations that provide or manage telecommunication services. The program covers a broad range of topics, including wired and wireless communication networks, signal processing, data transmission, and emerging technologies such as 5G, IoT, and satellite communications. Students also gain practical experience with network design, optimization, and the integration of advanced communication technologies to meet the growing global demand for fast and reliable connectivity.
Program Educational Outcomes
Graduates of the Communication Engineering program shall be:- Involved in distinguished careers where communication engineering technical knowledge and skills are applied in a variety of businesses and inter-disciplinary settings.
- Perusing professional activities or postgraduate studies to continuously expand their skills and knowledge in communication engineering and related fields.
- Contributing to a team of professionals and performing leadership roles to tackle challenging communication engineering projects with awareness of ethical and social responsibilities.
Program Student Outcomes of Communication Engineering
The program student outcomes of Communication engineering are:- an ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics
- an ability to apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental, and economic factors
- an ability to communicate effectively with a range of audiences
- an ability to recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts
- an ability to function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives
- an ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions
- an ability to acquire and apply new knowledge as needed, using appropriate learning strategies.
Admission Requirements
| English | Other |
| High school score 80% or above in English or pass the UD EPT | High school score 80% or above in Math & Physics in addition to Biology or Chemistry |
Who Is This Program For?
The Bachelor's program in Communication Engineering is typically designed for students who are interested in pursuing a career in the field of communication systems and technologies. This program focuses on the principles and practices of designing, analyzing, and implementing various communication systems such as wireless networks, telecommunications, satellite systems, data transmission, and more.
The program is usually offered by universities or colleges that have departments or faculties of engineering or telecommunications. The specific curriculum may vary depending on the institution, but common courses in a Communication Engineering program often include:
- Digital Signal Processing
- Telecommunications Principles
- Wireless Communication Systems
- Data Communication and Networking
- Microwave Engineering
- Antenna Design
- Communication System Design
- Network Security
- Information Theory
- Error Control Coding
Career Opportunities
A Bachelor's degree in Communication Engineering can open up several career opportunities in various industries. Here are some common career paths for graduates:
- Communication Engineer: Communication engineers design, develop, and maintain communication systems and networks. They work on projects related to wireless communication, satellite systems, data transmission, and telecommunications. They may be involved in system design, network optimization, troubleshooting, and ensuring efficient communication infrastructure.
- Network Engineer: Network engineers are responsible for designing, implementing, and managing computer networks within an organization. They configure routers, switches, firewalls, and other networking devices to ensure smooth data transmission. Communication engineering graduates often possess the skills and knowledge required for network engineering roles.
- Telecommunications Specialist: Telecommunications specialists focus on the installation, operation, and maintenance of communication equipment and systems. They may work with telephony systems, fiber optic networks, wireless communication technologies, and related infrastructure. Their role involves troubleshooting issues, conducting performance analysis, and implementing improvements.
- Wireless Systems Engineer: Wireless systems engineers specialize in designing and implementing wireless communication technologies, such as cellular networks, Wi-Fi networks, and wireless sensor networks. They may work on areas like signal propagation, network optimization, frequency management, and ensuring reliable wireless connections.
- Research and Development Engineer: Graduates of Communication Engineering programs can also pursue careers in research and development (R&D). In this role, they contribute to the advancement of communication technologies by conducting experiments, analyzing data, developing new protocols or algorithms, and designing innovative solutions.
- Technical Sales Engineer: Technical sales engineers bridge the gap between technical knowledge and sales. They work closely with clients, understanding their requirements, and proposing communication solutions that meet their needs. Communication engineering graduates with strong communication and interpersonal skills can excel in this role.
- Project Manager: With experience and additional skills in project management, communication engineering graduates can take on project management roles. They oversee the planning, execution, and completion of communication-related projects, ensuring they meet deadlines, stay within budget, and fulfill client requirements.
Estimated Salary Range
The salary range for a bachelor's degree holder in Communication Engineering in the UAE can vary depending on several factors, including years of experience, job position, industry, company size, and location. It's important to note that the figures provided are estimates and can fluctuate based on market conditions and individual negotiations. Here is a general overview of the salary range:
- Entry-Level Positions: For fresh graduates with a bachelor's degree in Communication Engineering, the starting salary range can be around AED 4,000 to AED 8,000 per month. These positions typically include roles such as junior communication engineer, network engineer, or telecommunications specialist.
- Mid-Level Positions: With a few years of experience, professionals in mid-level positions can expect higher salaries. The salary range for mid-level communication engineering roles can be approximately AED 8,000 to AED 15,000 per month. These positions may include communication engineer, network engineer, wireless systems engineer, or project engineer.
- Senior-Level Positions: As professionals gain more experience and take on senior-level or managerial positions, their salaries can increase significantly. The salary range for senior-level communication engineering roles can be around AED 15,000 to AED 30,000 per month or higher. These positions may include senior communication engineer, network manager, telecommunications manager, or project manager.
Study Plan
Year 1
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Year 2
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Year 3
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Year 4
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Technical Elective Course List (Communication Engineering Concentration)
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Common Technical Elective Course List
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GUCR Elective Course List
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Year 1
| Semester 1 | ||||
| Course Code | Course Title | Prerequisite | Co-requisite | C.H. |
| ENGL 100 | English 1 | IELTS 5.0 | None | 3 |
| EMTH 100 | Calculus 1 for Engineering | None | None | 3 |
| GPHY 110 | Physics I for Engineering | None | None | 3 |
| GPHY-L 110 | Physics I Lab for Engineering | None | GPHY 110 | 1 |
| GECE 100 | General Chemistry 1 | None | None | 3 |
| ENIN 100 | Engineering Innovation | None | None | 3 |
| Semester Credits | 16 | |||
| Accumulated Credits | 16 | |||
| Semester 2 | ||||
| Course Code | Course Title | Prerequisite | Co-requisite | C.H. |
| ENGL 105 | English 2 | ENGL 100 OR ENGL 110 | None | 3 |
| EMTH 150 | Calculus 2 for Engineering | EMTH 100 | None | 3 |
| GPHY 160 | Physics II for Engineering | GPHY 110, GPHY-L 110 | None | 3 |
| GPHY-L 160 | Physics II for Engineering Lab | GPHY 110, GPHY-L 110 | GPHY 160 | 1 |
| ENAP 150 | Computer Algorithms & Programing | None | None | 3 |
| GEST 100 | Emirati Studies | ENGL 100 / ENGL 110 | None | 3 |
| Semester Credits | 16 | |||
| Accumulated Credits | 32 | |||
Year 2
| Semester 3 | ||||
| Course Code | Course Title | Prerequisite | Co-requisite | C.H. |
| EMTH 200 | Calculus 3 | EMTH 150 | None | 3 |
| EMTH 250 | Advanced Math I for Engineering | EMTH 150 | None | 3 |
| EMTH-L 250 | Advanced Math I Lab for Engineering | EMTH 150 | EMTH 250 | 1 |
| ENDD 210 | Digital Logic Design | ENAP 150 | None | 3 |
| ENDD-L 210 | Digital Logic Design Lab | ENAP 150 | ENDD 210 | 1 |
| ENEC 210 | Electric Circuits I | EMTH 150, GPHY 160, GPHY-L 160 | None | 3 |
| ENEC-L 210 | Electric Circuits I Lab | EMTH 150, GPHY 160, GPHY-L 160 | ENEC 210 | 1 |
| ENEE 300 | Engineering Economics | EMTH 100 | None | 3 |
| Semester Credits | 18 | |||
| Accumulated Credits | 50 | |||
| Semester 4 | ||||
| Course Code | Course Title | Prerequisite | Co-requisite | C.H. |
| ENMG 300 | Electromagnetics | GPHY150, EMTH200, EMTH250 | None | 3 |
| EMTH 260 | Advanced Math II | EMTH 250 | None | 3 |
| ENGL 220 | Communication Skills | ENGL 105 Or ENGL 120 | None | 3 |
| ENEL 260 | Electronics I | ENEC 210, ENEC-L 210 | None | 3 |
| ENEL-L 260 | Electronics I Lab | ENEC 210, ENEC-L 210 | ENEC 260 | 1 |
| ENEC 250 | Electric Circuits 2 | ENEC 200 | None | 3 |
| Semester Credits | 16 | |||
| Accumulated Credits | 66 | |||
Year 3
| Semester 5 | ||||
| Course Code | Course Title | Prerequisite | Co-requisite | C.H. |
| ENSS 300 | Signals & Systems | EMTH 260 | None | 3 |
| ENPR 300 | Probability & Random Processes | EMTH150 | None | 3 |
| ENMP 310 | Microprocessors | ENDD 210, ENDD-L 210 | None | 3 |
| ENMP-L 310 | Microprocessors Lab | ENDD 210, ENDD-L 210 | ENMP 310 | 1 |
| GIEC 105 | Innovation, Entrepreneurship & Career Planning | ENGL 120 | None | 3 |
| GUCR Elective | 3 | |||
| Semester Credits | 16 | |||
| Accumulated Credits | 82 | |||
| Semester 6 | ||||
| Course Code | Course Title | Prerequisite | Co-requisite | C.H. |
| ENCS 310 | Communication Systems | ENSS 300 | None | 3 |
| ENCS-L 310 | Communication Systems Lab | ENSS 300 | ENCS 310 | 1 |
| EECS 300 | Control Systems | ENSS 300 | None | 3 |
| ENDP 350 | Digital Signal Processing | ENSS 300 | None | 3 |
| ELPE 340 | Power & Machines | ENMG 300, ENEC 250 | None | 3 |
| ELCE 340 | Artificial Intelligence | ENAP150, EMTH 255 | None | 3 |
| Semester Credits | 16 | |||
| Accumulated Credits | 98 | |||
Year 4
| Semester 7 | ||||
| Course Code | Course Title | Prerequisite | Co-requisite | C.H. |
| ELPE 400 | Power System Analysis | ELPE 340 | None | 3 |
| ENIN410 or ENIN470 | Graduate Trainee (GT) / Learn Earn And Progress (LEAP) Program / Industry Project (16 weeks) | ≥ 90 CH | None | 6 |
| Technical Elective 1 | ** | None | 3 | |
| ENPR 401 | Graduation Project -1 | ≥ 96 CH | None | 3 |
| Semester Credits | 15 | |||
| Accumulated Credits | 113 | |||
| Semester 8 | ||||
| Course Code | Course Title | Prerequisite | Co-requisite | C.H. |
| Technical Elective 2 | ** | None | 3 | |
| Technical Elective 3 | ** | None | 3 | |
| Technical Elective 4 | ** | None | 3 | |
| Technical Elective 5 | ** | None | 3 | |
| ENPR 402 | Graduation Project -2 | ENPR 401 | None | 3 |
| Semester Credits | 15 | |||
| Accumulated Credits | 128 | |||
Technical Elective Course List (Communication Engineering Concentration)
| Select any 4 to 5 courses (12 to 15 CH) from below | ||||
| Course Code | Course Title | Prerequisite | Co-requisite | C.H. |
| CEAP 400 | Antenna & propagation | ENSS300,ENMG300 | None | 3 |
| CEWC 400 | Wireless Communication | ENCS 300 | None | 3 |
| CEOC 400 | Optical Communication | ENMG300, ENCS300 | None | 3 |
| CEDC 400 | Digital Communication | ENCS 300 | None | 3 |
| CESC 400 | Satellite Communication | ENCS 300 | None | 3 |
| ENAI 400 | Audio & Image Processing | ENDP 350 | None | 3 |
| CEIC 400 | IT & Coding | ENCS300, ENPR300 | None | 3 |
Common Technical Elective Course List
| Common Technical Elective Course List - can mix between electives for general track | ||||
| Select a maximum of 1 course (3 CH) from any concentration | ||||
| Course Code | Course Title | Prerequisite | Co-requisite | |
| ENEL 400 | Solar Energy Technology | ENEL 250 | None | 3 |
| CECN 400 | Communication Networks | ENAP 150 | None | 3 |
| ENES 400 | Embedded Systems | ENMP 300 | None | 3 |
| ELPE 408 | Industrial Instrumentation | EECS 300 | None | 3 |
| ENEL 401 | CMOS Design | ENEL 250 | None | 3 |
GUCR Elective Course List
| Select any 2 course (6 CH) from below | ||||
| Course Code | Course Title | Prerequisite | Co-requisite | |
| GSOC 100 | Sociology and Society | ENGL 100/ ENGL 110 | None | 3 |
| GHSO 100 | Health and Society | None | ENGL 100 OR ENGL 110 | 3 |
| GSUS 200 | Sustainability | ENGL 100/ ENGL 110 | None | 3 |
| GPSY 100 | Psychology and Society | ENGL 100/ ENGL 110 | None | 3 |
| GCHI 100 | Chinese 1 | None | 3 | |
| GABU 100 | Arabic for Business | None | 3 | |
| GISL 100/105 | Islamic Thought | None | None | 3 |
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