Dr. Atta ur Rahman | Quantum Materials | Research Excellence Award

Dr. Atta ur Rahman | Quantum Materials | Research Excellence Award

University of Chinese Academy of Sciences | China

Dr. Atta ur Rahman is an emerging and highly dedicated researcher in the field of quantum materials and quantum information science, with a strong focus on the behavior of quantum systems under realistic physical conditions. His research explores fundamental and applied aspects of open quantum systems, quantum correlations, and noise-resilient quantum resources, contributing to a deeper understanding of how quantum materials and quantum states perform in non-ideal environments. Dr. Rahman’s work lies at the intersection of quantum physics, quantum optics, and quantum thermodynamics, where he investigates entanglement, coherence, purity, and information dynamics in systems influenced by classical and stochastic noise. He is particularly recognized for developing analytical and numerical models that describe the robustness and performance limits of quantum resources, providing theoretical support for experimentally relevant quantum platforms. His research contributes to advancing quantum photonics, hybrid quantum systems, and resource-based quantum technologies, which are essential for next-generation communication, sensing, and computation. Dr. Rahman is highly skilled in mathematical modeling, computational physics, and scientific programming, applying tools such as Python and symbolic computation to solve complex quantum problems. In addition to his research activities, he has demonstrated a strong commitment to education and knowledge dissemination through teaching and mentoring in physics and related disciplines. His scholarly work reflects a balance between theoretical depth and practical relevance, emphasizing how quantum materials and quantum states behave under environmental disturbances. Through his originality, methodological rigor, and contributions to understanding quantum dynamics in realistic settings, Dr. Atta ur Rahman has established a strong research profile in quantum materials and is a deserving recipient of the Research Excellence Award.

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Mr Jagat Ram Kanwar | Quantum Materials | Best Researcher Award

Mr Jagat Ram Kanwar | Quantum Materials | Best Researcher Award

Mr. Jagat Ram Kanwar is a passionate quantum physicist specializing in Quantum Foundations, Quantum Computation, and Quantum Information Theory ⚛️💻. He is currently pursuing a Ph.D. in Physics at Himachal Pradesh University, Shimla 🏫. His research focuses on quantum entanglement, teleportation, and computational physics, contributing to advancements in secure communication and quantum computing 🔗🔢. He has published in high-impact journals 📚 and collaborated with leading researchers. His academic excellence is recognized through UGC NET-JRF qualification and participation in prestigious conferences 🏆. His dedication and contributions make him a promising researcher in quantum science 🚀.

Mr Jagat Ram Kanwar, Himachal Pradesh University, Shimla, India

Profile

SCOPUS

Education 🎓

Mr. Jagat Ram Kanwar is currently pursuing a Ph.D. in Physics at Himachal Pradesh University, Shimla (since December 2016) 🏫🔬. He has qualified for the UGC NET-JRF, showcasing his expertise in quantum physics and research excellence ⚛️📖. He holds an M.Sc. in Physics (53.85%) and a B.Sc. degree (47.8%) 🎓. His strong academic foundation began with Higher Secondary education (57%) and Matriculation (67%) 📊. With a consistent academic journey in theoretical and applied physics, he continues to make impactful contributions to quantum information science and computational physics 🚀.

Experience 🎓

Mr. Jagat Ram Kanwar has gained valuable teaching experience by instructing undergraduate students for one year at a private university 🏫📚. Additionally, he has taught M.Sc. Physics students at the Department of Physics, Himachal Pradesh University (HPU) for two semesters 🎯📖. His expertise in quantum mechanics and computational physics allows him to mentor students in complex theoretical concepts and their real-world applications ⚛️🧠. Through his academic experience, he has helped shape the next generation of physicists, fostering curiosity and excellence in the field of quantum information science 🚀🔬.

Research Focus 📡

Mr. Jagat Ram Kanwar specializes in quantum teleportation, quantum entanglement, and quantum computation 🔬💻. His research explores Quantum Teleportation Using Symmetric States as a Quantum Channel, focusing on secure quantum communication and efficient transmission of quantum information 🔄🔗. By leveraging symmetric multi-qubit states, he investigates how quantum entanglement can optimize teleportation protocols for future quantum networks and cryptographic systems 🔐🚀. His work contributes to the advancement of quantum information theory, paving the way for real-world applications in secure data transfer and quantum computing technologies 🌍⚡.

Research Papers 📄

Mr. Jagat Ram Kanwar has made significant contributions to quantum information science through his research publications in high-impact journals 🏆📚. His paper, “Entanglement Concentration of Multi-Qubit Entangled States: An IBM Quantum Experience,” published in Quantum Studies, Mathematics and Foundations (Springer), explores quantum entanglement and computational experiments using IBM’s quantum processors ⚛️💻. Another key publication, “Quantum Teleportation Using Symmetric States,” published in the International Journal of Theoretical Physics (Springer), advances secure quantum communication techniques 🔄📡. His research plays a crucial role in the development of future quantum technologies 🚀🔢.

Publications 📚

Quantum Teleportation Using Symmetric States as Quantum Channel ⚛️📡

✍️ Authors: Jagat Ram Kanwar, Dev Dutt, Shashi Kumar Dhiman 👨‍🔬📚

📖 Journal: International Journal of Theoretical Physics 🏛️📝

📅 Year: 2025 📆

🔗 Focus: This study explores quantum teleportation protocols using symmetric multi-qubit states as an efficient quantum channel, providing insights into secure quantum communication and next-generation quantum networks 🔄🔗. The research enhances quantum information processing, contributing to secure data transmission and computational advancements in quantum mechanics 🚀💡.