Throughout 2026, a series of activities at Galgotias University and within the broader IEEE Photonics Society community in India demonstrated how technical education, hands-on learning, mentorship, and interdisciplinary collaboration can work together to strengthen the next generation of engineers and researchers.
Spanning topics from photonics and optoelectronic materials to machine learning, sustainable energy, robotics, and semiconductor technologies, these programs created opportunities for students and professionals to engage with emerging areas of research while building stronger connections across India’s technical community.
Establishing a Foundation for Community and Collaboration
The series began in March 2026 with the Inauguration of the IEEE Photonics Society GUSBC and Prakash Bharati Chapter at Galgotias University. Bringing together 60 participants—including 30 IEEE members—the event marked an important step toward expanding opportunities for students to connect with the photonics profession and the wider IEEE community.
The inauguration brought together university leadership and distinguished members of the academic community, including Galgotias University Vice Chancellor Dr. K. Mallikharjuna Babu and Pro Vice Chancellor Prof. (Dr.) Avadhesh Kumar. The program also welcomed Chief Guest Prof. Sri Niwas Singh and Guest of Honor Prof. Preeta Sharan, creating an opportunity for students to engage with experienced researchers and academic leaders.
Discussions extended beyond photonics to areas including nanoelectronics, power systems, semiconductor research, and sustainable electric mobility. Importantly, the gathering also emphasized mentorship and the role of the Prakash Bharati initiative in connecting professionals and strengthening scientific collaboration across India.
Through direct interaction with researchers and IEEE leaders, students were encouraged not only to learn about emerging technologies but also to see themselves as future contributors to these fields.
Moving from Knowledge to Hands-On Innovation
That emphasis on student participation continued with INNOVATRIUM. The multidisciplinary technical competition challenged students to move beyond classroom theory and apply their knowledge to practical problems.
A total of 42 teams participated across five specialized tracks: Photonics, Communication, Embedded/IoT, Robotics, and VLSI. Rather than concentrating on a single discipline, the event reflected the increasingly interconnected nature of modern engineering.
Participants conceptualized, developed, and presented their own projects, which were evaluated by expert judges. The format encouraged creativity, teamwork, technical communication, and practical problem-solving while giving students experience transforming ideas into tangible applications.
For photonics students in particular, the multidisciplinary structure provided an important perspective. Advances in photonics increasingly intersect with electronics, communications, sensing, computing, artificial intelligence, and other technologies. Providing students with opportunities to work across these boundaries helps prepare them for the collaborative environments they will encounter in research and industry.
Exploring Emerging Frontiers in Photonics
Galgotias University continued this momentum through the five-day hybrid program, Emerging Trends on Optoelectronic Materials and Photonics Technologies.
The program reached 92 participants, with 42 attending in person and 50 participating online. The audience included 30 IEEE members and 62 non-members, extending the educational reach of the program beyond the existing IEEE community.
The hybrid format also demonstrated the value of combining local engagement with digital accessibility. While in-person participation can foster deeper networking and discussion, virtual access allows technical programming to reach students, researchers, and professionals who may otherwise be unable to participate.
By focusing on optoelectronic materials and emerging photonics technologies, the program provided a forum for exploring developments that underpin a wide range of applications. Extended technical programs such as this can play an important role in exposing students to research areas beyond their regular coursework while helping researchers and professionals exchange knowledge about a rapidly evolving field.
Connecting Machine Learning, Materials, and Clean Energy
This summer, the series expanded even further into interdisciplinary research with the online technical program Machine Learning-Guided Catalyst Design for Clean Energy Generation. The session brought together 13 participants, including 12 IEEE members, to examine how data-driven approaches can accelerate the discovery of materials for sustainable energy technologies.
The presentation explored the use of supervised machine learning to map structure-property relationships across MXene compositions—a class of two-dimensional materials with promising applications in energy technologies. Attention was given to using machine learning algorithms to predict catalytic performance for processes including hydrogen evolution and carbon dioxide activation.
The session also demonstrated a broader shift occurring across scientific disciplines: machine learning is increasingly becoming a tool not only for analyzing experimental results but also for guiding scientific discovery itself. By identifying important material descriptors and predicting promising candidates, computational techniques can help researchers narrow enormous chemical search spaces before moving toward experimental synthesis and validation.
Connecting these methods with sustainable energy generation also illustrated how photonics and adjacent technical communities can contribute to challenges extending well beyond the boundaries of any single discipline.
A Connected Approach to Building the Next Generation
Taken together, these activities represent more than a series of individual technical events. They demonstrate a continuum of engagement: building community, introducing students to experts, encouraging hands-on experimentation, deepening technical knowledge, and connecting emerging technologies with major societal challenges.
The inauguration of the IEEE Photonics Society GUSBC and Prakash Bharati Chapter established a foundation for mentorship and professional connection. INNOVATRIUM gave students an opportunity to become creators and problem-solvers. The optoelectronics and photonics program provided deeper exposure to emerging research, while the machine learning-guided catalyst session connected advanced computational techniques with the global pursuit of sustainable energy solutions.
Collectively, the programs also demonstrate the importance of creating multiple pathways into a technical community. Students benefit not only from lectures, but from project competitions, mentorship, exposure to researchers, interdisciplinary conversations, and opportunities to participate in professional networks such as IEEE.
For the IEEE Photonics Society community in India, activities such as these can help strengthen connections among students, educators, researchers, and professionals while expanding awareness of the many ways photonics intersects with other transformative technologies.
As India continues to grow its capabilities across photonics, semiconductors, artificial intelligence, advanced materials, communications, and clean energy, developing the people behind those technologies will be equally important. By combining technical education with mentorship, experimentation, and community building, these initiatives are helping students gain the knowledge, confidence, and professional connections needed to participate in that future.
