Professor, Head of Wireless Engineering and Complexity Science Laboratory (WhyCOM), National Research Centre for Future Networks and Communications (CONNECT), School of Engineering Trinity College Dublin, Ireland

• Complex Systems in Network Design
  Dr. Marchetti emphasized the importance of understanding networks as complex systems. He argued that traditional linear models are insufficient for capturing the dynamic and emergent behaviors of modern networks. By adopting complexity science principles, engineers can better design and manage networks that are resilient and adaptive.

• Beyond Machine Learning: Alternative AI Approaches
  While machine learning, particularly deep learning, has dominated AI applications in communications, Dr. Marchetti highlighted the potential of alternative computational methods. These include agent-based modeling and semantic communications, which can offer more nuanced and context-aware solutions for network management.

• Industry 5.0 and Cyber-Physical Systems
  The lecture introduced the concept of Industry 5.0, where human-centric and sustainable approaches are integrated into industrial processes. Dr. Marchetti discussed how cyber-physical systems, enhanced by AI and complex system theories, can lead to more efficient and responsive industrial operations.

• Emerging Technologies: mmWave and Quantum Communications
  Dr. Marchetti explored the role of emerging technologies such as millimeter-wave (mmWave) communications and quantum information science. He discussed how these technologies could be leveraged to address the increasing demands for bandwidth and security in future networks.

Shri L C Mangal of DEAL (DRDO)

Key Points:

• Government policies and incentives supporting semiconductor growth.

• Collaborations between academia, industry, and government bodies.

• Challenges and opportunities in building a robust semiconductor ecosystem.

Biography:

Shri L.C. Mangal is a distinguished Indian scientist and a senior leader within the Defence Research and Development Organisation (DRDO), currently serving as the Director General of Technology Management (DG-TM) at DRDO Headquarters in New Delhi. He was appointed to this position on January 30, 2025, following his tenure as Director of the Defence Electronics Applications Laboratory (DEAL) in Dehradun.

Prof. R. K. Sinha of DTU

• Overview: Explore how AI is transforming communication technologies, including network optimization and intelligent protocols.​

• Key Points:

  • Integration of AI in 5G and beyond communication networks.

  • AI-driven approaches to spectrum management and cognitive radio.

  • Future prospects of AI in enhancing communication reliability and efficiency.

Biography:

Prof. Ravindra Kumar Sinha is an esteemed Indian physicist and academic administrator, currently serving as the Vice Chancellor of Gautam Buddha University (GBU) in Greater Noida, Uttar Pradesh, since January 28, 2022 . He is renowned for his contributions to fiber optics, optical communication, and nanophotonics.​rksinha.in+1rksinha.in+1dtu.ac.in+6rksinha.in+6dtu.ac.in+6

🎓 Academic Background

• Ph.D. in Fiber Optics & Optical Communication
  Indian Institute of Technology (IIT) Delhi, 1990. His doctoral research focused on the propagation characteristics of rectangular core optical waveguides and devices, under the mentorship of Professors Arun Kumar and B.P. Pal .​rksinha.in

• M.Sc. in Physics
  IIT Kharagpur, 1984.​rksinha.in+2SPIE+2rksinha.in+2

Prof. Manav R. Bhatnagar of IIT Delhi

The Role of Artificial Intelligence in Modern Communication Systems

• Overview: Explore how AI is transforming communication technologies, including network optimization and intelligent protocols.​

• Key Points:

  • Integration of AI in 5G and beyond communication networks.

  • AI-driven approaches to spectrum management and cognitive radio.

  • Future prospects of AI in enhancing communication reliability and efficiency.

Biography:

Prof. Manav R. Bhatnagar is a distinguished academic in the field of electrical engineering, currently serving as the Brigadier Bhopinder Singh Chair Professor at the Indian Institute of Technology (IIT) Delhi. He is also the Head of the Quality Improvement Programme Centre for Educational Planning (QIPCEP) at IIT Delhi.

Academic Background

• Ph.D. in Wireless Communications
  University of Oslo, Norway (2008)​JIIT+3Loop+3ee.iitd.ac.in+3

• M.Tech. in Communications Engineering
  IIT Delhi (2005)​ee.iitd.ac.in

• B.E. in Electronics
  North Maharashtra University (1997)​

Prof. Sudeb Dasgupta of IIT Roorkee

• Overview: Delve into the latest advancements in VLSI and FPGA technologies and their applications in modern electronic devices.​

• Key Points:

  • Design challenges and solutions in miniaturization and power efficiency.

  • FPGA's role in rapid prototyping and adaptive systems.

  • Case studies of innovative VLSI/FPGA applications in industry.

Dr. Ashutosh Dutta of Johns Hopkins University Applied Physics Laboratory (JHU/APL)

Dr. Dutta has delivered numerous speeches and lectures focusing on 5G technologies, network security, and related advancements. For instance, he has presented on topics such as "Security in SDN/NFV and 5G Networks – Opportunities and Challenges," discussing the evolution of cellular technologies towards 5G and the associated security challenges and opportunities.

Prof. (Dr.) M. Jaleel Akhtar of Department of Electrical Engineering, IIT Kanpur

Microwave Imaging and Remote Sensing: Exploring advanced techniques in electromagnetic theory for applications in imaging and sensing.​

• RF Metamaterial-Inspired Sensors: Discussing the development and application of metamaterials in creating innovative radio frequency sensors.​

• Electromagnetic Interference and Compatibility (EMI/EMC): Addressing challenges and solutions related to electromagnetic interference in electronic systems.​

• Standardization in Engineering Education: Emphasizing the integration of Indian standards into engineering curricula to enhance the quality and relevance of technical education. ​

Dr. Sanjay Kumar of Prof. & Head Dept. of Electronics and Communication Engineering Chairperson, Value Education Cell (VEC) Birla Institute of Technology Mesra, Ranchi.

1. The Role of Device Intelligence in Modern Engineering

Dr. Kumar likely emphasized the growing importance of intelligent devices in various sectors, highlighting how advancements in artificial intelligence and machine learning are transforming electronics and communication engineering.​

2. Bridging Academia and Industry

He may have discussed the necessity of aligning academic curricula with industry needs, advocating for collaborative research and development projects that prepare students for real-world challenges.​

3. Promoting Value-Based Engineering Education

As Chairperson of the Value Education Cell at BIT Mesra, Dr. Kumar probably underscored the importance of ethics and values in engineering, encouraging the integration of these principles into technical education.

Prof. Mahesh Kumar of Indian Institute of Technology Jodhpur Fellow of Institute of Physics (FInstP), UK Fellow of the Royal Society of Chemistry (FRSC) Member of National Academy of Sciences India Member of Global Young Academy IEEE Senior Member

In his talks, Prof. Kumar also highlights the significance of interdisciplinary research and international collaborations. He has been recognized with several prestigious fellowships, such as the Fulbright-Nehru Academic and Professional Excellence Fellowship, which facilitated his research at the Massachusetts Institute of Technology (MIT), USA. These experiences enrich his lectures, providing insights into global advancements in material science and sensor technology

Prof. Ghanshyam Singh of Professor Dept. of Electronics & Communication Engg., MNIT, Jaipur Senior member of SPIE, OSA, IEEE and a Fellow of OSI and IETE

1. Integrated Photonics: Shrinking the Power of Light

Integrated photonics is to light what microelectronics was to electricity. It involves the integration of multiple photonic functions—such as lasers, modulators, and detectors—onto a single chip.

• It allows for miniaturized, low-power, and high-speed optical systems, which are critical for data centers, 5G/6G infrastructure, and quantum computing.

• By using silicon photonics and hybrid material platforms, we’re moving towards scalable and CMOS-compatible solutions.

• Applications span LIDAR systems, biosensors, and optical interconnects, fundamentally transforming industries.

2. Optical Sensors: Light as a Diagnostic Tool

Optical sensors leverage the interaction between light and matter to detect physical, chemical, or biological changes.

• With label-free, real-time, and highly sensitive detection, these sensors are crucial in healthcare diagnostics, environmental monitoring, and industrial safety.

• Advances in plasmonics, waveguide engineering, and nano-structuring have made it possible to detect substances at ultra-low concentrations.

• The integration of AI and machine learning into optical sensing platforms now enables predictive and adaptive sensing capabilities.

3. Photonic Crystal Fibers (PCFs): Engineering Light Paths

Photonic crystal fibers represent one of the most significant breakthroughs in fiber optics since the invention of the traditional optical fiber.

• Unlike conventional fibers, PCFs are designed with micro-structured cross-sections, allowing tailored light guidance properties, including endlessly single-mode behavior, nonlinearity control, and dispersion engineering.

• They open new frontiers in supercontinuum generation, high-power laser delivery, and optical biosensing.

• In sensing, PCFs can be designed to be highly sensitive to changes in refractive index, temperature, pressure, or chemical composition, making them ideal for harsh and remote environments.