Pooja | Theoretical High-Energy Physics | Best Researcher Award 

Dr. Pooja | Theoretical High-Energy Physics | Best Researcher Award 

University of Jyvaskyla | Finland

Dr. Pooja earned her Ph.D. in Theoretical High-Energy Physics from the Indian Institute of Technology Goa, where her research focused on probing the early stages of high-energy nuclear collisions through heavy quarks. She has presented her work at numerous international conferences, including Quark Matter and SQM, and received multiple awards for outstanding oral and poster presentations. With strong expertise in heavy-ion physics, QCD matter, and numerical simulations, she has contributed significantly to understanding quark dynamics in Glasma and quark-gluon plasma. Alongside her research, she has served extensively as a teaching assistant in physics and computational courses, reflecting her dedication to both scientific inquiry and academic mentorship.

Author Profiles

Orcid

Scopus

Early Academic Pursuits

Dr. Pooja laid a strong foundation in physics through her early education, demonstrating academic excellence throughout her school and undergraduate years. She completed her B.Sc. (H) Physics from Ramjas College, University of Delhi in 2013 with distinction, followed by an M.Sc. in Physics from the Indian Institute of Technology Roorkee in 2019. She then pursued her Ph.D. in Theoretical High-Energy Physics at the Indian Institute of Technology Goa under the supervision of Dr. Santosh Kumar Das (2019–2024). Her thesis, Probing the early stages of high-energy nuclear collisions by heavy quarks”, reflects her deep engagement with the theoretical underpinnings of particle physics.

Professional Endeavors

During her doctoral studies, Dr. Pooja gained extensive teaching and mentoring experience as a Teaching Assistant in multiple core physics courses, including Quantum Physics and Applications, Numerical Simulations, and Undergraduate Physics Laboratories at IIT Goa from 2019 to 2024. Alongside teaching, she actively participated in international and national conferences, presenting her research at prestigious platforms such as Quark Matter, CERN workshops, and the Asian Triangle Heavy-Ion Conference (ATHIC). Her academic journey has been enriched by participation in international summer schools, including the CSC Summer School in High-Performance Computing in Finland (2025).

Contributions and Research Focus

Her contributions center on advancing Theoretical High-Energy Physics, specifically probing the dynamics of heavy quarks in the early stages of high-energy nuclear collisions. Her research has focused on phenomena such as quark diffusion, anisotropic fluctuations, and the pre-equilibrium Glasma phase. By developing and applying theoretical models, she has significantly enhanced the understanding of how heavy quarks behave in quark-gluon plasma and other extreme QCD environments. These contributions provide a deeper insight into the early universe conditions and particle interactions at high energies.

Impact and Influence

Dr. Pooja’s impact in Theoretical High-Energy Physics is reflected in the recognition she has received through multiple awards, including best poster and best oral presentation honors at international conferences such as SQM 2024 and Hot QCD Matter 2022. Her invited talks and mini-reviews at international conferences demonstrate her growing influence in the high-energy physics community. She has also actively contributed to global scientific collaborations by presenting at conferences across Europe, the USA, and Asia, thereby amplifying her academic presence and impact.

Academic Cites

Her publications and presentations in the domain of Theoretical High-Energy Physics have been cited and appreciated by fellow researchers, highlighting the relevance of her work in advancing the theoretical framework of QCD matter and heavy-ion collisions. Her work continues to be a reference point for researchers exploring quark dynamics, nuclear collisions, and related high-energy physics phenomena.

Legacy and Future Contributions

Dr. Pooja’s legacy lies in her significant contributions to understanding heavy quark dynamics in nuclear collisions and her commitment to teaching and mentorship. Looking ahead, she aims to expand her research by integrating advanced computational techniques and high-performance computing with theoretical models. Her future contributions are expected to further unravel the complexities of QCD matter, inspiring future scholars in the field. She also intends to continue contributing to international collaborations and building bridges between theoretical frameworks and experimental observations.

Theoretical High-Energy Physics

Dr. Pooja’s expertise in Theoretical High-Energy Physics has advanced the understanding of heavy-ion collisions and quark-gluon plasma dynamics. Her innovative studies in Theoretical High-Energy Physics link heavy-quark diffusion with the evolution of QCD matter. As she continues her career, her focus on computational models and collaborations will further strengthen her role in Theoretical High-Energy Physics research worldwide.

Publications


Diffusion of heavy quarks in the early stage of high-energy nuclear collisions

Authors: Pooja, Pooja; Das, Santosh Kumar; Greco, Vincenzo; Ruggieri, Marco

Source: EPJ Web of Conferences

Year: 2025


Dynamics of heavy quarks and their pairs in the pre-equilibrium Glasma phase of the heavy-ion collisions

Author: Pooja

Source: Journal of Subatomic Particles and Cosmology

Year: 2025


Dynamics of hot QCD matter 2024 — hard probes

Authors: Das, Santosh K.; Palni, Prabhakar; Sarkar, Amal; Agotiya, Vineet Kumar; Bandyopadhyay, Aritra; Bhaduri, Partha Pratim; Datta, Saumen; Desai, Vaishnavi; Dey, Debarshi; Greco, Vincenzo et al.

Source: International Journal of Modern Physics E

Year: 2025


The Impact of Memory on Heavy Quarks Dynamics in Hot QCD Medium

Authors: Prakash, Jai; Ruggieri, Marco; Pooja; Das, Santosh K.

Source: Springer Proceedings in Physics

Year: 2024


Heavy Quark Diffusion in Glasma and Gluonic Plasma

Authors: Pooja; Ruggieri, Marco; Das, Santosh Kumar

Source: DAE Symposium on Nuclear Physics

Year: 2023


The Effects of Memory on Heavy Quarks Dynamics in the Quark-Gluon Plasma

Authors: Prakash, Jai; Ruggieri, Marco; Pooja; Das, Santosh Kumar

Source: DAE Symposium on Nuclear Physics

Year: 2023


Conclusion

In conclusion, Dr. Pooja stands out as a promising young researcher in Theoretical High-Energy Physics, with a solid academic foundation, impactful research contributions, and a clear trajectory of influence and innovation. Her dedication to both teaching and research, combined with her recognition at national and international platforms, highlights her as an emerging leader whose work will continue to advance the frontiers of physics.

Barry Clarke – Strings – Best Researcher Award 

Dr. Barry Clarke demonstrated exceptional academic promise from an early stage. He earned a B.Sc. in Theoretical Physics from the University of Hull (1979–1981), achieving an outstanding 90% in Advanced Mathematics an accolade attained by only 4 out of 92 students. His M.Sc. in Theoretical Physics (1982–1984), also from Hull, focused on Commutator Techniques of Quantum Mechanics, including matrix mechanics and Fortranalgorithms. Later, combining his deep scientific mindset with literary scholarship, Dr. Clarke earned a PhD in Shakespeare Studies from Brunel University in 2013, exploring Francis Bacon’s contribution to three Shakespeare plays. This diverse academic foundation laid the groundwork for his multifaceted career.

💼 Professional Endeavors

Dr. Clarke’s career spans academic physics, literary scholarship, popular puzzle writing, and television consultancy. He has published peer-reviewed articles in both quantum mechanics and literary criticism, including pieces in J. Phys. A: Math. Gen., Modern Physics Letters B, and Quantum Studies: Mathematics and Foundations. Simultaneously, he has contributed extensively to public engagement with logic and mathematics through puzzle columns in The Daily Telegraph and other major outlets. His consultancy roles with the BBC and Channel 4 showcase his cross-disciplinary appeal and ability to bring complex ideas into accessible formats.

🔬 Contributions and Research Focus

Dr. Clarke’s dual research focus on quantum physics and Shakespearean authorship sets him apart. His early physics work includes innovations in perturbation theory, matrix mechanics, and fine structure modeling, with a standout recent article on a photonic toroidal vortex model of the hydrogen atom. On the literary front, his 2019 book Francis Bacon’s Contribution to Shakespeare proposed a novel attribution method, endorsed by Sir Mark Rylance. Furthermore, he has written over 1,500 puzzles, authored numerous bestselling books, and continues to write puzzle columns that incorporate strings of logical reasoning and numerical patterns, inspiring critical thinking across ages.

🌍 Impact and Influence

Dr. Clarke’s influence is felt in academic, popular, and interdisciplinary spheres. His physics research is cited in quantum mechanics literature, while his Shakespeare studies have generated lively debate. In the realm of puzzles and logic, his bestsellers—such as Brain Busters and Challenging Logic Puzzles Mensa—have sold over 100,000 copies, some reaching No. 1 on Amazon. His enduring role at The Daily Telegraph and frequent contributions to New Scientist and Reader’s Digest reflect a broad impact across education, publishing, and media.

🏆Academic Cites

His scholarly works, notably those on anharmonic oscillators and quantum perturbation theory, are frequently cited by physicists. His literary critiques, especially on The Tempest and Bacon’s influence, are recognized within Shakespeare studies. The interplay of theoretical strings of logic, whether in matrix mechanics or authorship attribution, ties his academic work together. His book The Quantum Puzzle and article on the Grangier experiment reinterpretation further attest to a rigorous yet innovative approach.

🌟 Legacy and Future Contributions

Looking forward, Dr. Clarke continues to expand his puzzle repertoire with upcoming titles like Tesla’s Puzzles (2026) and Newton’s Puzzles (2024), merging scientific legacy with interactive learning. His work offers a rare fusion of rigorous analytical thinking and creative literary insight. The expected publication of Mathematical Conundrums in 2023 underscores his lasting influence on both mathematics education and recreational problem-solving. His ongoing contributions to physics through new string-based interpretations of quantum models will likely inspire further theoretical development.

📝Strings

Dr. Clarke’s approach to quantum mechanics consistently involves strings of matrix perturbations and logical inference, both in physics and in Shakespeare studies. His puzzles challenge solvers to uncover hidden strings of logic that test cognitive flexibility. Furthermore, his string-based models in quantum physics represent a bridge between classical interpretations and modern theoretical frameworks. The use of strings as a conceptual and practical tool underscores the thematic and methodological unity across his diverse body of work.

✍️ Notable Publication


📝Reinterpretation of the Grangier experiment using a multiple-triggering single-photon model

Author: Barry R. Clarke

Journal: Modern Physics Letters B

Year: 2023

Citations: 0