Renuka Cheeturi | Quantum Computing | Innovative Research Award

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Innovative Research Award

Renuka Cheeturi is a researcher affiliated with the National Institute of Technology, Warangal, India, whose research interests include quantum computing and lattice-based security for cloud-assisted Internet of Things (IoT) environments. Her scholarly work includes studies of public auditing, certificateless cryptographic mechanisms, and quantum-resistant security approaches for cloud storage and IoT systems.[1][2][3]

Renuka Cheeturi
Affiliation National Institute of Technology, Warangal
Country India
Scopus ID 58651022600
Documents 6
Citations 6
h-index 2
Subject Area Quantum Computing
Event Technology Scientists Awards
ORCID 0009-0003-4533-2519

Abstract

Renuka Cheeturi is a researcher affiliated with the National Institute of Technology, Warangal, India, whose scholarly interests encompass quantum computing, cloud security, lattice-based cryptography, and public auditing for cloud-assisted Internet of Things environments. Her research includes work on trapdoor-free certificateless public auditing, lattice-based auditing mechanisms, and quantum-resistant security schemes for cloud-assisted IoT. These studies address security, privacy, auditability, and resistance to emerging computational threats in distributed cloud environments. Her publication record includes research examining cryptographic mechanisms designed to strengthen data integrity and verification while considering security requirements associated with future quantum computing capabilities.[1][2][3]

Keywords

Quantum Computing; Quantum-Resistant Cryptography; Lattice-Based Cryptography; Cloud Security; Internet of Things; Public Auditing; Data Integrity; Certificateless Cryptography; Cloud-Assisted IoT; Post-Quantum Security.

Introduction

Cloud-assisted IoT systems require mechanisms that can verify outsourced data without exposing sensitive information or imposing excessive computational requirements. Renuka Cheeturi’s research addresses this area through public auditing schemes based on lattice-related cryptographic constructions and quantum-resistant security principles. Her work considers emerging requirements for integrity verification and secure cloud-assisted IoT architectures.[1][3]

Research Profile

Cheeturi’s research profile is centered on cryptographic security for cloud storage and IoT systems, with particular relevance to lattice-based methods and quantum-resistant public auditing. Her work connects conventional cloud integrity verification with security considerations arising from quantum computing, emphasizing cryptographic constructions that can support trustworthy data management in distributed computing environments.[2][3]

Research Contributions

Her documented contributions include research on trapdoor-free lattice-based certificateless public auditing, comprehensive examination of lattice-based auditing approaches, and development of an efficient quantum-resistant public auditing scheme for cloud-assisted IoT. Collectively, these publications address authentication, auditability, data integrity, and resilience against cryptographic threats associated with future quantum-enabled computational capabilities.[1][2][3]

Publications

Cheeturi’s listed research includes studies addressing lattice-based public auditing and quantum-resistant cloud-assisted IoT security. The publications cover both foundational and applied aspects of secure public auditing, including a trapdoor-free certificateless construction, a survey of lattice-based auditing schemes, and an efficient quantum-resistant approach for cloud-assisted IoT environments.[1][2][3]

Research Impact

The research contributes to the broader discussion of secure cloud storage and IoT data verification by examining cryptographic approaches suitable for environments facing evolving computational threats. Its relevance extends to public auditing, data integrity, privacy-aware verification, and post-quantum security, while the available bibliographic record provides measurable indicators of scholarly dissemination through indexed publications and citations.[1][2][3]

Award Suitability

Cheeturi’s research is relevant to an Innovative Research Award through its focus on cryptographic approaches for contemporary and emerging security challenges. Her publications address lattice-based public auditing and quantum-resistant cloud-assisted IoT security, demonstrating engagement with research topics at the intersection of cloud computing, cybersecurity, cryptography, and quantum computing.[1][3]

Conclusion

Renuka Cheeturi’s documented research addresses secure public auditing for cloud-assisted IoT and lattice-based cryptographic mechanisms, including approaches designed to address quantum-era security requirements. Her publication portfolio reflects a focused research direction involving cloud security, cryptography, data integrity, and quantum-resistant technologies, providing a scholarly basis for recognition within innovative technology research.[1][2][3]

References

  1. Cheeturi, R., et al. (n.d.). TF-LB-CLPAS: Trapdoor-Free Lattice-Based Certificateless Public Auditing Scheme for Cloud-Assisted IoT. Concurrency and Computation: Practice and Experience.
    https://doi.org/10.1002/cpe.70923
  2. Cheeturi, R., et al. (n.d.). Lattice-Based Public Auditing Schemes for Cloud Storage Security: A Comprehensive Survey. Concurrency and Computation: Practice and Experience.
    https://doi.org/10.1002/cpe.70556
  3. Cheeturi, R., et al. (n.d.). Efficient and Quantum-Resistant Public Auditing Scheme for Cloud-Assisted IoT. IEEE.
    https://ieeexplore.ieee.org/document/11410013
  4. Elsevier. (n.d.). Scopus author details: Renuka Cheeturi, Author ID 58651022600. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=58651022600

Eleonora Lorenza Zich | Quantum Computing | Research Excellence Award

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Ms. Eleonora Lorenza Zich | Quantum Computing | Research Excellence Award

Politecnico di Milano | Italy 

Ms. Eleonora L. Zich is a researcher at the Politecnico di Milano, focusing on computational electromagnetics and advanced optimization methodologies. Her work integrates evolutionary algorithms, quantum-inspired computing, and numerical modeling to address complex electromagnetic design problems with enhanced efficiency and precision. Zich has authored 8 scientific publications, which have collectively received 8 citations, contributing to an h-index of 2, reflecting a developing yet increasingly recognized research trajectory. A notable example of her recent work is the 2025 article “Quantum Selection for Genetic Algorithms Applied to Electromagnetic Design Problems,” which demonstrates her commitment to innovating optimization frameworks for engineering applications. By incorporating quantum-based selection mechanisms into genetic algorithms, she advances computational strategies that can significantly improve the performance of electromagnetic design workflows. Zich collaborates with ten co-authors, indicating active participation in interdisciplinary research networks spanning electrical engineering, applied physics, and computational sciences. These collaborations enhance the breadth and applied relevance of her contributions, particularly in fields such as telecommunications, sensing technologies, and electronic component optimization. Through her focus on algorithmic innovation and computational efficiency, Zich’s work supports the development of advanced tools that have the potential to influence both academic research and industrial technological progress.

Citation Metrics (Scopus)

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🟦 Citations        🟥 Documents          🟩 h-index

View Scopus Profile

Top 5 Featured Publications

Shao-Chun Li | Quantum Materials | Best Researcher Award

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Prof. Shao-Chun Li | Quantum Materials | Best Researcher Award

Professor | Nanjing University | China

Prof. Shao Chun Li, affiliated with Nanjing University, is a prolific researcher whose work primarily focuses on condensed matter physics and materials science, particularly low-dimensional quantum materials. His research explores the fundamental electronic properties of transition metal dichalcogenides (TMDs) and topological materials such as WTe₂ and ZrTe₅. These materials are of significant interest due to their exotic quantum phenomena, including quantum spin Hall effect, topological insulating behavior, superconductivity, charge density waves, and pseudogap states. Notable among his contributions is the observation of a Coulomb gap in monolayer 1T’-WTe₂, which has implications for understanding electron-electron interactions in two-dimensional systems. He has also investigated potassium-intercalated Td-WTe₂ and revealed emergent superconducting properties, broadening the potential for novel quantum device applications. Furthermore, his work on 1T-TiSe₂ provided insights into charge density wave inhomogeneity and pseudogap phenomena, contributing to the broader understanding of correlated electron systems. Through detailed experimental techniques such as scanning tunneling microscopy (STM) and angle-resolved photoemission spectroscopy (ARPES), Prof. Li’s research elucidates the complex interplay of lattice, charge, and spin in quantum materials. With over 3,642 citations and an h-index of 30, his scholarly output, including 59 publications in high-impact journals like Nature Communications, Nano Letters, and Physical Review B, reflects his strong influence in the field. Prof. Li’s investigations not only deepen the fundamental understanding of quantum states of matter but also support the development of next-generation electronic and quantum technologies.

Profiles: Scopus | ORCID

Featured Publications

1. Song, Y.‑H., Jia, Z.‑Y., Zhang, D., Zhu, X.‑Y., Shi, Z.‑Q., Wang, H., Zhu, L., Yuan, Q.‑Q., Zhang, H., Xing, D.‑Y., & Li, S.‑C. (2018). Observation of Coulomb gap in the quantum spin Hall candidate single‑layer 1T′‑WTe₂. Nature Communications, 9(1). 
 Cited by: 74

2. Zhu, L., Li, Q.‑Y., Lv, Y.‑Y., Li, S.‑C., Zhu, X.‑Y., Jia, Z.‑Y., et al. (2018). Superconductivity in potassium‑intercalated Td‑WTe₂. Nano Letters, 18(10). 
Cited by: 63

3. Zhang, K.‑W., Yang, C.‑L., Lei, B., Lu, P., Li, X.‑B., Jia, Z.‑Y., Song, Y.‑H., Sun, J., Chen, X., Li, J.‑X., & Li, S.‑C. (2018). Unveiling the charge density wave inhomogeneity and pseudogap state in 1T‑TiSe₂. Science Bulletin, 63(7), 426‑432. 
Cited by: 20

Sajjad Hashemi Abasabadi | Quantum thermodynamics | Best Researcher Award

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Mr. Sajjad Hashemi Abasabadi | Quantum thermodynamics | Best Researcher Award

PhD Candidate, Vali-e-Asr University of Rafsanjan, Iran

Sajjad Hashemi Abasabadi is an emerging physicist and a dedicated PhD candidate in Optics and Laser Physics at Vali-e-Asr University of Rafsanjan, Iran. With a Master’s degree in Atomic and Molecular Physics and a solid foundation in laser spectroscopy, Sajjad is spearheading theoretical innovations in quantum thermodynamics and energy-efficient heat engines. His work intricately combines quantum optics, information theory, and thermodynamic modeling to advance nanoscale energy systems. His growing publication record in high-impact journals and strong conceptual grasp of quantum systems position him as a promising young researcher in the frontier of quantum technologies. 🌟

👨‍🔬 Author Profile

✅ Strengths for the Award

Sajjad Hashemi Abasabadi has demonstrated notable potential and commitment to advancing the field of quantum thermodynamics and quantum heat engines, particularly within the context of quantum optics and information. As a Ph.D. candidate, his contributions reflect a deep theoretical understanding and novel analytical approaches. His published works in reputable journals like Scientific Reports and International Communications in Heat and Mass Transfer indicate the scholarly merit and international visibility of his research.

  • Development of a Quantum Otto engine model with a Pöschl–Teller potential, contributing to energy efficiency at the nanoscale.

  • Exploration of non-thermal reservoirs and their impact on work and efficiency, which broadens the understanding of thermodynamic behavior in quantum systems.

  • Innovative analysis of endoreversible quantum heat engines under strong coupling, offering insight into irreversibility and system performance trade-offs.

His work addresses fundamental challenges in energy-efficient technologies and emerging quantum devices, aligning with cutting-edge priorities in modern physics and quantum engineering.

🎓 Education

Sajjad began his academic journey at Vali-e-Asr University of Rafsanjan, where he earned his M.Sc. in Physics, specializing in Atomic and Molecular Physics. His thesis focused on the spectroscopic characterization of molecular transitions under various pressure conditions, revealing key insights into atomic behavior in dynamic environments. Driven by a passion for precision measurement and quantum mechanics, he continued his academic path at the same university, currently pursuing a Ph.D. in Physics (Optics and Laser). His doctoral research is centered on laser-based high-resolution imaging and quantum metrology, where he explores applications ranging from ultrafast laser dynamics to the mechanics of quantum heat engines. 🎓🔬

👨‍🔬 Experience

During his academic career, Sajjad has contributed to several research endeavors that reflect both depth and innovation. His collaborative work extends across multiple domains of quantum physics, from thermodynamic cycle modeling to non-classical reservoir dynamics. He has presented his findings at national Awards, gaining recognition for tackling complex theoretical models with practical significance in quantum engines. He has also participated in interdisciplinary projects involving ultrafast laser dynamics, contributing to the design of precision instruments in optical physics. His evolving expertise is evidenced by peer-reviewed publications in Scientific Reports and International Communications in Heat and Mass Transfer. 📊🧪

🔍 Research Focus on Quantum thermodynamics

Sajjad’s research bridges quantum thermodynamics, optics, and non-equilibrium heat engine modeling, with a primary focus on Quantum Otto heat engines. He explores how non-standard reservoir dynamics and system-bath interactions influence performance, including studies on Pöschl–Teller potential models for enhanced efficiency, the role of coherent and non-thermal reservoirs, and the impact of strong coupling in endoreversible engines. Through analytical and numerical modeling, his work supports the development of nanoscale thermal machines relevant to quantum information processing and energy conversion technologies. 🔭⚛️

📚 Publications Top Notes

Quantum Otto Heat Engine with Pöschl–Teller Potential in Contact with Coherent Thermal Bath

Authors: Sajjad Hashemi Abasabadi, S.Y. Mirafzali, H.R. Baghshahi
Journal: Scientific Reports, Volume 13, Article 10522, 2023
Publisher: Nature Portfolio
DOI: 10.1038/s41598-023-37681-1
Summary:
This paper explores the behavior of a quantum Otto heat engine using a Pöschl–Teller potential as the working medium, coupled to a coherent thermal reservoir. By incorporating quantum coherence into the thermal bath, the study demonstrates measurable improvements in efficiency and work output. The authors establish that coherence can be leveraged to enhance the performance of nanoscale thermal machines beyond classical thermodynamic limits, offering a pathway toward the realization of quantum-enhanced energy devices.

Endoreversible Quantum Heat Engine Affected by Strong Coupling with Thermal Reservoir

Authors: Sajjad Hashemi Abasabadi, S.Y. Mirafzali, H.R. Baghshahi
Journal: International Communications in Heat and Mass Transfer, Volume 167, Article 109309, 2025
Publisher: Elsevier
DOI: 10.1016/j.icheatmasstransfer.2025.109309

🔍 Summary:
In this work, the authors examine a quantum endoreversible Otto engine operating under strong coupling between the system and its thermal environment. Unlike weak coupling models that simplify energy exchange, this study reveals how strong interactions affect irreversibility, power output, and overall thermodynamic efficiency. The analysis uncovers trade-offs between performance and system-bath coupling strength, providing critical insights into the design of realistic quantum thermal engines operating in non-ideal conditions.

Efficiency and Work Quantum Otto Machine in Contact with Non-Thermal Reservoir

Authors: S. Hashemi Abasabadi, S.Y. Mirafzali, H.R. Baghshahi
Journal: Quarterly Journal of Optoelectronic, Volume 6, Issue 1, Pages 51–58, 2023
DOI: https://doi.org/10.30473/jphys.2023.69525.1170

🔍 Summary:
This article investigates the performance of a quantum Otto engine interacting with a non-thermal reservoir, extending conventional thermodynamic models. By introducing non-thermal bath characteristics such as squeezed states or engineered distributions, the paper analyzes their impact on the engine’s efficiency and work extraction capacity. Results show that non-thermal reservoirs can be engineered to outperform thermal baths, marking a significant step forward in optimizing quantum energy systems.

🧠 Conclusion

Sajjad Hashemi Abasabadi is a visionary early-career researcher whose work bridges theoretical physics and applied quantum technologies. His groundbreaking studies on quantum heat engines have unveiled fundamental relationships between coherence, coupling strength, and engine performance, shaping a new understanding of how quantum machines can operate efficiently in realistic environments. Despite being at the outset of his career, Sajjad has already carved a niche in quantum thermodynamics and optics, showing the potential to lead transformative research in the field.