M.Tech- Digital Communication

The M.Tech. in Digital Communication program is designed to provide in-depth knowledge of modern communication technologies, signal processing, and networking. With the rapid advancements in wireless communication, satellite systems, IoT, and 5G networks, the demand for skilled professionals in this domain is increasing. This program aims to equip students with expertise in digital signal processing, modulation techniques, information theory, coding, and optical communication. The curriculum combines theoretical concepts with practical exposure, enabling students to work on real-world problems in telecommunications, networking, and embedded systems. Graduates of this program are well-prepared for careers in research, development, and industry.

Course Overview

The M.Tech in Digital Communication program is designed to provide in-depth knowledge and expertise in the field of modern communication technologies. The course focuses on advanced concepts in digital signal processing, wireless communication, error control coding, and optical communication. It enables students to develop a strong foundation in theoretical and practical aspects of digital communication systems, preparing them for research, academia, and industry roles. This program covers various aspects of communication, including modulation techniques, digital transmission, coding theory, and networking protocols. Students gain hands-on experience with software tools such as MATLAB, Simulink, NS2, CST Microwave Studio, HFSS, and Cadence, as well as hardware implementations for real-time communication applications. The curriculum integrates essential topics such as antenna design, microwave engineering, optical fiber systems, and wireless networks, providing a comprehensive understanding of both conventional and emerging technologies like 5G, IoT, and software-defined radio (SDR). With a strong emphasis on research and development, the program encourages students to engage in innovative projects, leading to the enhancement of telecommunications and networking systems. Graduates of this course can explore diverse career opportunities in telecommunication companies, aerospace & defense, semiconductor industries, academia, and research organizations. The M.Tech in Digital Communication ensures that students are well-equipped with the technical skills and knowledge required to meet the challenges of the rapidly evolving communication industry.

Head of Department

Prof. Mohit Khilwani

B.E. (EC), M.Tech (Embedded System & VLSI Design) | Work Experience: 12+ Years

Prof. Mohit Khilwani, an accomplished academician and dedicated educator, brings 12+ years of experience in Electronics & Communication Engineering, contributing significantly to the growth and development of both students and the institution. With a Master’s degree in Embedded Systems & VLSI Design and a Bachelor’s in Electronics & Communication Engineering, his expertise directly benefits students by bridging the gap between theoretical learning and real-world applications. His strong technical background helps design a curriculum that aligns with industry advancements, ensuring that students receive cutting-edge knowledge and hands-on experience.

As Head of the Department, his leadership plays a pivotal role in shaping an industry-oriented learning environment. By implementing innovative teaching methodologies, practical workshops, and research-driven projects, he ensures that students gain relevant technical and analytical skills. Organizing industrial visits, expert lectures, and internships, he actively fosters collaborations with industry leaders, opening new career pathways for students and enhancing the institution’s reputation.

His expertise in IoT, PCB Designing, Proteus & EasyEDA Simulation equips students with essential practical skills required in emerging technologies. Beyond technical knowledge, his strong leadership, communication, and mentoring skills create an engaging academic culture, ensuring student success and faculty development. Through initiatives like counseling, documentation processes, and academic support, he contributes to student well-being and professional preparedness.

His contributions extend to the broader academic community, delivering guest lectures, evaluating national-level competitions like the Smart India Hackathon, and actively participating in faculty development programs. These efforts not only enhance institutional credibility but also bring valuable exposure and learning opportunities for students.

With a vision to build a dynamic, innovation-driven, and industry-ready department, he is committed to preparing students for future technological challenges while strengthening the institution’s standing in the academic and professional world. His dedication to academic excellence, research, and industry collaboration continues to drive the growth and success of both the students and the institution.

Program Educational Objectives (PEO)

  1. The Program Educational Objectives (PEO) of the B.Tech. in Electronics & Communication Engineering are designed to:

    1. Build Technical Expertise – Graduates will gain in-depth knowledge of electronic circuits, signal processing, and wireless communication to excel in core and interdisciplinary fields.
    2. Industry Readiness – Students will develop analytical, problem-solving, and research skills, making them industry-ready professionals.
    3. Innovation & Entrepreneurship – The program fosters creativity and entrepreneurial mindset, encouraging students to develop startup ideas, patents, and innovative projects.
    4. Professionalism & Ethics – Graduates will demonstrate strong leadership, teamwork, and ethical values, contributing to society responsibly.
    5. Lifelong Learning – The curriculum instills a continuous learning attitude, preparing students for higher education, research, and certifications in emerging technologies.
    6. Industry Ready – To provide students with a “hands-on” approach to electronics & communication engineering, so that graduates process the required needs under the realistic constraints.

Course Snapshot

    • Duration: 2 years (4 semesters)
    • Eligibility: B.Tech/B.E in Electronics and Communication Engineering (ECE) or related fields
    • Core Areas: Digital Signal Processing, Wireless Communication, Error Control Coding, Optical Communication
    • Key Technologies Covered: Modulation Techniques, Digital Transmission, Networking Protocols, Microwave Engineering
    • Software & Tools: MATLAB, Simulink, NS2, CST Microwave Studio, HFSS, Cadence
    • Industry Relevance: 5G, IoT, Software-Defined Radio (SDR), Antenna Design
    • Career Opportunities: Telecommunications, Aerospace & Defense, Semiconductor Industries, Academia, Research Organizations
    • Practical Exposure: Hands-on lab work, industry projects, research-based dissertation

    The M.Tech in Digital Communication program is designed to provide in-depth knowledge and expertise in modern communication technologies. It enables students to develop a strong foundation in theoretical and practical aspects of digital communication systems, preparing them for research, academia, and industry roles. With a strong emphasis on research and development, the program encourages students to engage in innovative projects, leading to the enhancement of telecommunications and networking systems. Graduates are well-equipped with the technical skills and knowledge required to meet the challenges of the rapidly evolving communication industry.

Course Content

The Department of Electronics and Communication Engineering follows the curriculum prescribed by Rajiv Gandhi Proudyogiki Vishwavidyalaya (RGPV) while continuously striving to integrate emerging technologies and industry trends into the coursework. To enhance academic flexibility, a broad range of elective subjects is available, allowing students to customize their learning path according to their interests and career goals. Laboratory courses encourage students to conduct value-added experiments that go beyond the standard syllabus, fostering innovation and hands-on learning.

During the final year dissertation, students work under the guidance of experienced faculty members on industry and research-driven projects, with a strong emphasis on real-world applications. The department actively collaborates with industries and research organizations, providing students with practical exposure and industry-relevant experience. Additionally, students are encouraged to contribute to academia by publishing research papers and presenting their work at reputed conferences, further strengthening their research and technical expertise.

The curriculum is designed to cover core, applied, and advanced topics in Digital Communication. Key subjects include:

  • Advanced Digital Communication Systems
  • Wireless and Mobile Communication
  • Optical Fiber Communication
  • Digital Signal and Image Processing
  • Information Theory and Error Control Coding
  • Microwave and Radar Communication
  • Antenna Theory and Design
  • AI & Machine Learning Applications in Communication
  • Embedded Systems & IoT
  • AI & Machine Learning Applications in ECE

Students undertake lab experiments, industry projects, and research-based studies to enhance their technical expertise. The program ensures a strong foundation in theoretical and practical aspects of digital communication, preparing graduates for leading roles in research, academia, and industry.

 

Facilities

The department is equipped with state-of-the-art laboratories and modern equipment to support research and practical learning. Facilities include:

  • Advanced Electronics Lab
  • Microprocessors & Microcontrollers Lab
  • VLSI Design & Embedded Systems Lab
  • Digital Communication Lab
  • IoT & AI Research Lab
  • Simulation & Software Labs (MATLAB, PSPICE, Xilinx)

Students have access to high-tech research facilities, industry collaboration projects, and innovation labs to support their academic growth.

 

 

Career Options

Graduates of M.Tech in Digital Communication have diverse career opportunities in private, research, and government sectors. Potential career paths include:

Private Sector:

  • Telecommunication Engineer – Working with networking companies, telecom service providers, and mobile communication firms to design and optimize communication systems.
  • Signal Processing Engineer – Specializing in digital signal processing (DSP) for applications in speech processing, image processing, and multimedia systems.
  • Wireless Communication Engineer – Focusing on the development of 5G, IoT, and satellite communication technologies.
  • RF and Microwave Engineer – Designing and testing radio frequency (RF) and microwave circuits for applications in radar, satellite communication, and defense systems.
  • Networking and Cybersecurity Expert – Ensuring secure communication networks in fields like network security, cryptography, and cybersecurity infrastructure.
  • Embedded Systems Engineer – Working with hardware and software integration for real-time digital communication systems.
  • Optical Communication Specialist – Engaging in fiber optics-based communication networks and photonics research.
  • Entrepreneurship & Startups – Founding tech startups in areas like wireless communication, AI-driven networks, and embedded technology solutions.

Research & Development (R&D) Sector:

  • Academia & Research – Pursuing Ph.D. programs or joining universities and research institutes as lecturers, professors, or research scientists.
  • R&D Engineer – Innovating cutting-edge digital communication technologies in corporate R&D labs, space organizations, and defense sectors.
  • AI & ML Researcher in Communication – Developing AI-driven communication models for automated network optimization, predictive maintenance, and signal processing applications.

Government Sector:

  • ISRO & DRDO Scientist – Engaging in satellite communication, radar systems, and defense communication technologies.
  • Public Sector Undertakings (PSUs) – Opportunities in organizations like BSNL, BHEL, BEL, NTPC, and RailTel.
  • Indian Engineering Services (IES) – Serving in government telecommunications and public infrastructure projects.
  • National Research Labs – Conducting advanced communication research in CSIR, CDAC, and government-funded innovation centers.
  • Cybersecurity & Intelligence Agencies – Working on secure government networks and cryptographic communication for intelligence agencies.

With the growing demand for advanced communication systems, graduates are highly sought after by telecom giants, research organizations, government agencies, and multinational tech companies.

 

Faculty

The faculty members of the Department of Electronics and Communication Engineering play a pivotal role in shaping the academic and professional growth of students. They bring extensive industry and research experience, ensuring that students gain in-depth theoretical knowledge as well as practical insights into digital communication technologies. The faculty is actively involved in mentoring students, providing individualized guidance for projects, research work, and career planning.

To keep students abreast of emerging trends, faculty members organize seminars, workshops, guest lectures, and technical training programs in collaboration with industry leaders and research organizations. They encourage students to engage in interdisciplinary research and support them in publishing their work in reputed international journals and conferences. The faculty also fosters an innovative learning environment by integrating modern pedagogical tools, hands-on lab experiences, and live industry projects.

Additionally, faculty members actively facilitate industry collaborations, enabling students to work on real-world problems and gain exposure to cutting-edge technologies. They also guide students in preparing for competitive exams, job placements, and higher education opportunities, ensuring they are well-equipped to excel in both academic and professional domains.

Activities

The department actively organizes events and activities to enhance student learning and industry exposure:

  • Workshops & Training Sessions on 5G networks, IoT, and embedded systems.
  • Guest Lectures by industry professionals from telecom and networking companies.
  • Industrial Visits to communication labs, satellite centers, and research institutions.
  • Technical Competitions like hackathons, circuit design challenges, and coding events.
  • Student Research Projects in collaboration with industries and research labs.
  • Internships & Placements through the Training & Placement Cell.

These activities help students gain hands-on experience, improve their technical skills, and prepare them for global career opportunities.