I-Te Lu – Light-matter Interaction – Best Researcher Award 

Posted on by AMO Physics

Dr. I-Te Lu embarked on his academic journey with a strong foundation in Materials Science and Engineering, earning his BS from National Chiao Tung University (NCTU), Taiwan in 2010. His early academic pursuits showcased his interest in advanced materials and their interactions, leading him to pursue an MS in Applications of Synchrotron Radiation on Materials at NCTU and the National Synchrotron Radiation Research Center (NSRRC). His thesis focused on Synchrotron Radiation Infrared Ray Analysis of Human Lung Adenocarcinoma Living Cells, demonstrating his commitment to interdisciplinary research. He later completed his PhD in Materials Science with a Minor in Physics at the California Institute of Technology (Caltech), USA, where his thesis on First-principles calculations of electron-defect interactions and defect-limited charge transport laid the groundwork for his future contributions to quantum materials research.

💼 Professional Endeavors

Dr. Lu has had an illustrious professional career, working at some of the most prestigious research institutions worldwide. Currently, he serves as a Postdoctoral Research Fellow in Prof. Angel Rubio’s research group at the Max Planck Institute for the Structure and Dynamics of Matter (MPSD), Germany, where he develops quantum electrodynamics density functional theory (QEDFT) functionals for solid-state materials. Prior to this, he was a Postdoctoral Scholar in Prof. Marco Bernardi’s research group at Caltech, focusing on electron-defect interactions in materials using first-principles methods. His work as a Research Assistant at Caltech from 2015 to 2020 was instrumental in co-developing PERTURBO, an open-source code for electron-phonon interactions and carrier dynamics, further establishing his expertise in computational materials science.

🔬 Contributions and Research Focus

Dr. Lu’s research primarily revolves around light-matter interaction, quantum materials, and computational methods. His expertise spans first-principles calculations, synchrotron radiation analysis, and high-performance computing. His work in QEDFT functionals and electron-phonon interactions has provided significant insights into how light interacts with materials at the atomic scale. His research contributions extend to nanomaterials, defect engineering, and optoelectronics, making his work essential in the development of next-generation quantum materials. His research at NSRRC on synchrotron light beams (XAS, XPS, and TXM) for material characterization further solidified his interdisciplinary approach, bridging physics, materials science, and quantum mechanics.

🌍 Impact and Influence

Dr. Lu’s impact in light-matter interaction research is evident through his contributions to major scientific projects, including PERTURBO and QEDFT functional development. His expertise in first-principles calculations has influenced a wide range of studies in computational materials science, making him a key contributor to the field. His work has received international recognition, earning him the Humboldt Research Fellowship in Germany (2021-2023) and a Government Scholarship for USA Study from Taiwan’s Ministry of Education (2014-2017), both prestigious accolades that highlight his scientific contributions.

🏆Academic Cites

Dr. Lu’s research has been widely cited in academic journals, with his work on electron-phonon interactions, defect-limited charge transport, and quantum electrodynamics serving as a reference point for researchers worldwide. His ability to develop computational tools such as PERTURBO has made his research highly valuable in both theoretical and applied physics. His participation in the Argonne Training Program for Extreme-Scale Computing (ATPESC) in 2017, where he received intensive training in high-performance computing, further underscores his contributions to computational material science.

🌟 Legacy and Future Contributions

As Dr. I-Te Lu continues his research in light-matter interaction, his future contributions are set to revolutionize the understanding of quantum materials. His development of QEDFT functionals and his expertise in electron-defect interactions will be crucial in advancing materials for quantum computing, energy applications, and optoelectronic devices. His ongoing research at Max Planck Institute positions him at the forefront of materials science, ensuring that his legacy in computational modeling and quantum materials research will continue to inspire future generations.

📝Light-matter Interaction

Dr. I-Te Lu’s groundbreaking work in light-matter interaction has paved the way for advancements in quantum materials and optoelectronic devices. His computational models, including PERTURBO, have enhanced the understanding of light-matter interaction at the atomic level. With ongoing research in quantum electrodynamics and solid-state materials, Dr. Lu remains a leading figure in light-matter interaction, shaping the future of materials science.

Notable Publication

📝Perturbo: A software package for ab initio electron–phonon interactions, charge transport, and ultrafast dynamics

Authors: JJ Zhou, J Park, IT Lu, I Maliyov, X Tong, M Bernardi

Journal: Computer Physics Communications

Year: 2021

Citations: 232

📝Solid-State Divalent Ion Conduction in ZnPS₃

Authors: AJ Martinolich, CW Lee, IT Lu, SC Bevilacqua, MB Preefer, M Bernardi, ...

Journal: Chemistry of Materials

Year: 2019

Citations: 49

📝Efficient ab initio calculations of electron-defect scattering and defect-limited carrier mobility

Authors: IT Lu, JJ Zhou, M Bernardi

Journal: Physical Review Materials

Year: 2019

Citations: 45

📝High-yield water-based synthesis of truncated silver nanocubes

Authors: YM Chang, IT Lu, CY Chen, YC Hsieh, PW Wu

Journal: Journal of Alloys and Compounds

Year: 2014

Citations: 32

📝First-principles ionized-impurity scattering and charge transport in doped materials

Authors: IT Lu, JJ Zhou, J Park, M Bernardi

Journal: Physical Review Materials

Year: 2022

Citations: 29

📝Using defects to store energy in materials–a computational study

Authors: IT Lu, M Bernardi

Journal: Scientific Reports

Year: 2017

Citations: 23

📝Surface modification of commercial PtRu nanoparticles for methanol electro-oxidation

Authors: CW Kuo, IT Lu, LC Chang, YC Hsieh, YC Tseng, PW Wu, JF Lee

Journal: Journal of Power Sources

Year: 2013

Citations: 23

📝Combined experimental-theoretical study of electron mobility-limiting mechanisms in SrSnO₃

Authors: TK Truttmann, JJ Zhou, IT Lu, AK Rajapitamahuni, F Liu, TE Mates, ...

Journal: Communications Physics

Year: 2021

Citations: 19

Srivathsava Surabhi – Optoelectronics – Best Researcher Award

Posted on by AMO Physics

Dr. Srivathsava Surabhi - Optoelectronics - Best Researcher Award 

University of Concepción - Chile

Author Profile

Scopus

Google Scholar

Orcid

🎓 Early Academic Pursuits

Dr. Srivathsava Surabhi's academic journey began with a strong foundation in physics and materials science, eventually evolving into a specialization in non-conventional renewable energy technologies. His early work focused on understanding the fundamental properties of materials, which laid the groundwork for his innovative research in optoelectronics and other advanced fields. This robust academic foundation allowed him to delve into interdisciplinary areas, blending theoretical and experimental techniques to address complex scientific challenges.

💼 Professional Endeavors

Dr. Surabhi's professional endeavors reflect a commitment to advancing renewable energy technologies through cutting-edge research and international collaboration. His expertise spans experimental techniques such as RF-sputtering, nanoimprint lithography, and spin coating, alongside computational methods using Ansys-based FDTD and FEM modules, as well as Comsol Multiphysics. He has worked on diverse projects with collaborators from South Korea, India, Chile, Cuba, and Mexico, fostering innovation in optoelectronics, spintronics, and plasmonics. His leadership as a principal investigator for a Chilean grant demonstrates his ability to manage significant research projects and contribute to global scientific advancements.

🔬 Contributions and Research Focus

Dr. Surabhi's research is centered on the integration of 2D ultrathin heterostructured films for applications such as piezophototronic devices and photothermal-induced electrochemical nanoenergy storage mechanisms. He developed a novel computational framework combining Finite-Difference Time-Domain (FDTD) and Finite Element Method (FEM) simulations to evaluate thermal gradients in ultrathin films, addressing challenges in measuring optically driven spin thermoelectric phenomena. This groundbreaking research was published in Nature Scientific Reports, further solidifying his contributions to optoelectronics and renewable energy technologies.

🌍 Impact and Influence

Dr. Surabhi's innovative work has had a profound impact on the scientific community, particularly in the domains of optoelectronics and renewable energy. His ability to exploit the synergistic properties of materials, ranging from metals and semiconductors to polymers and 2D nanomaterials, has opened new avenues for energy harvesting and device applications. His research has been recognized globally, earning him international awards and invitations to collaborate on cross-functional projects.

🏆Academic Cites

Dr. Surabhi's contributions to the field are well-documented in high-impact journals, including Nature Scientific Reports. His work has been extensively cited, reflecting its relevance and influence in advancing the understanding of thermal gradients, plasmonics, and spintronics. His collaborative projects have further enhanced his citation metrics, establishing him as a thought leader in his domain.

🌟 Legacy and Future Contributions

Looking ahead, Dr. Surabhi aims to expand his research on 2D nanostructures and their applications in renewable energy technologies. His future endeavors include developing scalable solutions for thermoplasmonics and optoelectronic energy scavenging, leveraging both theoretical and experimental insights. His commitment to mentoring young researchers and fostering international collaborations ensures his enduring legacy in the scientific community.

📝Optoelectronics

Dr. Surabhi's groundbreaking work in optoelectronics includes innovative applications of 2D ultrathin films and heterostructures for energy harvesting devices. His contributions to optoelectronics are underscored by his use of advanced computational and experimental techniques to address challenges in renewable energy technologies. The future of optoelectronics is poised for significant advancements, driven by Dr. Surabhi's pioneering research and international collaborations.

Notable Publication

📝Mixed-dimensional nanofluids: Synergistic thermal enhancement using 2D and 1D materials

Authors: Shetty, S.J., Shilpa, M.P., Bhat, S.S., Shivamurthy, R.C., Gurumurthy, S.C.

Journal: Materials Chemistry and Physics

Year: 2025

Citations: 0

📝Glutaraldehyde (GA) crosslinked PVA/GO-Ag polymer nanocomposite for optoelectronic and optomechanical applications

Authors: Kavitha, C.M., Eshwarappa, K.M., Gurumurthy, S.C., Jeong, J.-R., Morales, D.V.

Journal: Journal of Alloys and Compounds

Year: 2024

Citations: 0

📝Modification of thermal and electrical characteristics of hybrid polymer nanocomposites through gamma irradiation for advanced applications

Authors: Kavitha, C.M., Eshwarappa, K.M., Shetty, S.J., Jeong, J.-R., Morales, D.V.

Journal: Discover Nano

Year: 2024

Citations: 3

📝Polyol-Assisted Synthesis of Ni/Cu/Ag Trimetallic Nanoparticles for Nonlinear Optical Applications

Authors: Molakkalu Padre, S., Shetty, S.J., Bhat, S.S., Sonkawade, R.G., Chandrasekhar, G.S.

Journal: ACS Omega

Year: 2024

Citations: 1

📝Photothermic Energy Harvesting in Reduced Graphene Oxide Nanosheets Intercalated with Vanadium Nitride as Pseudocapacitive Electrode

Authors: Ramakrishnan, K., Surabhi, S., Rednam, U., Ramalinga Viswanathan, M., Karvembu, R.

Journal: ACS Applied Nano Materials

Year: 2024

Citations: 0

📝Tuning the optical and electrical properties by gamma irradiation of silver nanoparticles decorated graphene oxide on glutaraldehyde crosslinked polyvinyl alcohol matrix

Authors: Kavitha, C.M., Eshwarappa, K.M., Shilpa, M.P., Gurumurthy, S.C., Sanjeev, G.

Journal: Materials Research Bulletin

Year: 2024

Citations: 13

Archana Yadav – Photonics – Excellence in Research 

Posted on by AMO Physics

Dr. Archana Yadav - Photonics - Excellence in Research 

Integral University, Lucknow - India 

Author Profile

Scopus

Orcid

Google scholar

🎓 Early Academic Pursuits

Dr. Archana Yadav embarked on her academic journey with a solid foundation in Electronics and Instrumentation Engineering, earning a B.Tech from I.E.T. Lucknow with a percentage of 72.58%. She further pursued a Master’s degree in Digital Communication from B.I.E.T. Jhansi, achieving a commendable 75% and graduating with First Division with Honours. Her M.Tech dissertation on "Surface Plasmon Resonance Sensor using Metamaterial" laid the groundwork for her subsequent research in photonics and optical sensors.

💼 Professional Endeavors

Dr. Yadav's professional career spans over 12 years in teaching and research, reflecting her commitment to academic excellence. She currently serves as an Assistant Professor at Integral University, Lucknow, where she has taken on various leadership roles including Departmental Examination Coordinator, NAAC Criteria Coordinator, and Course Structure Designer. Her previous positions include lectureships at B.N. College of Engineering & Technology and the Institute of Engineering & Technology, Lucknow, where she demonstrated her capability in course coordination and student mentorship.

🔬 Contributions and Research Focus

Dr. Yadav's research is centered on the modeling and simulation of optical biosensors, with a particular emphasis on photonics for healthcare applications. Her doctoral thesis focused on the analysis and design of surface plasmon resonance (SPR) sensors for non-invasive glucose monitoring. Utilizing COMSOL Multiphysics and MATLAB, she investigated various 2D nanomaterials, TMDC materials, and metal nitride layers to optimize sensor performance. Her research is poised to contribute significantly to the development of wearable devices for continuous glucose monitoring and applications in forensics and neonatal care.

🌍 Impact and Influence

Dr. Yadav's impact is evident through her extensive involvement in academic services and peer review. She has reviewed for high-impact journals such as Silicon, Modern Physics Letters B, and Microchemical Journal, among others. Her editorial roles include serving on the Editorial Board of the Journal of Photonics Materials and Technology and the Journal of Microsensor. Her work has been published in reputed journals, presented at international conferences, and she holds a patent for her research. Her contributions to photonics research have advanced the field of optical biosensors, highlighting her influence and expertise.

🏆Academic Cites

Dr. Yadav's research has been well-cited in the academic community, reflecting its relevance and significance. Her publications in high-impact journals such as IEEE Transactions on NanoBioscience and presentations at international conferences underscore the impact of her work on the field of photonics. Her role as a reviewer and editor further attests to her scholarly contributions and recognition within the research community.

🌟 Legacy and Future Contributions

Dr. Archana Yadav is dedicated to advancing the field of photonics through her research on optical biosensors and wearable devices. Her future contributions aim to enhance non-invasive glucose monitoring technologies and explore their applications in various domains. Her ongoing research and leadership in academia will continue to inspire and drive innovation in the field of photonics, leaving a lasting legacy in both education and research.

📝Photonics

Dr. Archana Yadav’s research prominently features Photonics, with a focus on developing advanced optical biosensors for healthcare applications. Her work in Photonics has been critical in optimizing SPR sensors and integrating them into wearable devices for continuous glucose monitoring. The impact of her contributions to Photonicsis evident in her publications, patents, and leadership roles, highlighting her commitment to advancing the field.

Notable Publication

📝Bimetal Thin Film, Semiconductors, and 2D Nanomaterials in SPR Biosensors: An Approach to Enhanced Urine Glucose Sensing

Authors: Kumar, S., Yadav, A., Malomed, B.A.

Journal: IEEE Transactions on Nanobioscience

Year: 2024

Citations: 5

📝Design and Simulation of SPR Sensors by Employing Silicon and Silicon-Nitride With Mono and Bimetal Layers for Sensitivity Enhancement

Authors: Kumar, S., Yadav, A., Kumar, S., Malomed, B.A.

Journal: IEEE Sensors Journal

Year: 2024

Citations: 7

📝Improved Surface Plasmon Effect in Ag-based SPR Biosensor with Graphene and WS2: An Approach Towards Low Cost Urine-Glucose Detection

Authors: Yadav, A., Mishra, M., Tripathy, S.K., Singh, O.P., Sharan, P.

Journal: Plasmonics

Year: 2023

Citations: 24

📝Highly Sensitive Bimetallic-Metal Nitride SPR Biosensor for Urine Glucose Detection

Authors: Yadav, A., Kumar, A., Sharan, P., Mishra, M.

Journal: IEEE Transactions on Nanobioscience

Year: 2023

Citations: 53

📝Effect of 2-D nanomaterials on sensitivity of plasmonic biosensor for efficient urine glucose detection

Authors: Yadav, A., Kumar, S., Kumar, A., Sharan, P.

Journal: Frontiers in Materials

Year: 2023

Citations: 32

Konstantina Papachristopoulou – Photonics – Best Researcher Award 

Posted on by AMO Physics

Ms. Konstantina Papachristopoulou - Photonics - Best Researcher Award 

University of Patras - Greece

Author Profile

Scopus

Orcid

Google scholar

🎓 Early Academic Pursuits

Ms. Konstantina Papachristopoulou embarked on her academic journey with a focus on Photonics and Material Science, earning her qualifications from the University of Patras in Greece. Her education provided a strong foundation in the principles of Photonics, aerogels, metasurfaces, and biomimetics, which have become the core areas of her research. As a Ph.D. candidate in the Department of Materials Science at the University of Patras, she has been involved in cutting-edge research that bridges the gap between material science and Photonics.

💼 Professional Endeavors

Ms. Papachristopoulou is currently employed as a Postgraduate Researcher in the Department of Materials Science at the University of Patras. Her professional endeavors are deeply rooted in the exploration of Photonics and its applications in material science. Her work involves the synthesis and characterization of novel materials such as aerogels, xerogels, and metasurfaces. She has contributed to numerous projects that involve the development of photonic biosensors, plasmonic structures, and biomimetic materials, reflecting her commitment to advancing the field of Photonics.

🔬 Contributions and Research Focus

Ms. Papachristopoulou's research is primarily focused on Photonics, with significant contributions to the study of aerogels, xerogels, and metasurfaces. Her work on the nanofabrication of plasmonic diffractive structures and the development of toxin-sensing photonic interfaces has been well-received in the scientific community. She has also explored the extreme hydrodynamic behavior in biomimetic materials and the use of computer-generated plasmonic holographic structures. Her research is characterized by its interdisciplinary nature, combining Photonics with advanced material science techniques.

🌍 Impact and Influence

The impact of Ms. Papachristopoulou's work in Photonics is evident through her numerous publications and conference presentations. She has co-authored several journal articles, including studies on the synthesis of novel materials for photonic biosensors and the systolic nanofabrication of super-resolved photonics. Her contributions to the field have been recognized at various international conferences, where she has presented her findings on topics such as nanofabrication, plasmonics, and biomimetics. Her work continues to influence the direction of research in Photonics and material science.

🏆Academic Cites

Ms. Papachristopoulou's research in Photonics has garnered attention in academic circles, with her publications being cited by peers in the field. Her work on photonic biosensors, aerogels, and metasurfaces is particularly noted for its innovation and application potential. The recognition of her research by other scholars underscores the significance of her contributions to Photonics and material science.

🌟 Legacy and Future Contributions

Ms. Papachristopoulou's legacy in the field of Photonics is poised to grow as she continues her research and exploration of advanced materials. Her future contributions are likely to include further advancements in photonic interfaces, the development of new biomimetic materials, and innovative applications of Photonics in sensing and imaging technologies. Her work will undoubtedly leave a lasting impact on the scientific community, particularly in the areas of Photonics and material science.

Notable Publication

📝(M)other Tongue: The Optic and Haptic Scale for Restoration Works Made of Silica Aerogel

Authors: I. Michaloudis, K. Papachristopoulou, F. El-Zein, P.-N. Maravelaki, K. Kanamori

Journal: Journal of Sol-Gel Science and Technology

Year: 2023

📝Studies Towards the Synthesis of Novel 3-Aminopropoxy-Substituted Dioxins Suitable for the Development of Aptamers for Photonic Biosensor Applications

Authors: S. Kalantzi, S. Leonardi, E. Vachlioti, N. Vainos, D. Papaioannou

Journal: Materials

Year: 2021

📝Systolic Nanofabrication of Photonic Bioarchitectures

Authors: K. Papachristopoulou, N.A. Vainos

Journal: Optics InfoBase Conference Papers

Year: 2021

📝Nanolayer Growth on 3-Dimensional Micro-Objects by Pulsed Laser Deposition

Authors: N.A. Vainos, E. Bagiokis, V. Karoutsos, A.P. Caricato, A. Perrone

Journal: Nanomaterials

Year: 2021

📝Systolic Nanofabrication of Super-Resolved Photonics and Biomimetics

Authors: K. Papachristopoulou, N.A. Vainos

Journal: Nanomaterials

Year: 2020