Praveer Sihota | Materials Science | Best Researcher Award

Dr. Praveer Sihota | Materials Science | Best Researcher Award

University Medical Center Hamburg, Germany, India

Author Profile

Early Academic Pursuits 🎓✨

Dr. Praveer Sihota’s journey into the fascinating realm of biomedical engineering began with a robust academic foundation. Completing his Bachelor of Engineering in Biomedical Engineering from Rajiv Gandhi Technical University, Bhopal (2006-2010), he achieved a commendable score of 73.5%. Building on this, he pursued a Master of Technology in Biomedical Engineering at MIT, Manipal University, Karnataka (2011-2013), earning an impressive CGPA of 8.14/10.

His academic progression culminated in a Ph.D. in Biomedical Engineering from the prestigious Indian Institute of Technology Ropar (2015-2021). His doctoral research not only expanded the boundaries of knowledge in bone characterization but also earned him the Best PhD Thesis of the Year 2021, a testament to his groundbreaking work. 📜🏆

Professional Endeavors 💼🔬

Dr. Sihota’s professional journey reflects his dedication to exploring biomedical engineering and bone health. Early in his career, he honed his skills as an M.Tech Trainee in Bioinstrumentation at CSIR-CSIO Chandigarh (2012-2013). He then advanced to roles such as Research Fellow in Biostatistics at IIT Mandi (2013-2014) and in Endocrinology at PGIMER Chandigarh (2015).

Notably, as a Project Assistant at IIT Ropar (2021), he delved into bone mechanical testing. Currently, Dr. Sihota holds the prestigious Alexander von Humboldt Fellowship as a Post-doctoral Research Fellow in the Department of Osteology and Biomechanics (IOBM), University Medical Center Hamburg-Eppendorf, Germany (2022-2025). His work focuses on the multi-scale assessment of bone quality, furthering insights into metabolic bone diseases. 🌍🔍

Contributions and Research Focus 🧬🛠️

Dr. Sihota’s research delves into the multiscale characterization of bone, emphasizing metabolic disorders like type 2 diabetes, obesity, and osteoporosis. His studies on the effects of advanced glycation end products and glucocorticoids reveal their impact on bone material and mechanical properties, mineralization, collagen quality, and skeletal fragility.

By leveraging clinical cohorts and animal models, Dr. Sihota investigates the underlying mechanisms of pathological bone changes, offering critical insights into fracture risks. His work stands as a beacon for developing diagnostic tools and treatments to combat fragility fractures, enhancing the quality of life for individuals with metabolic bone diseases. 🩺🦵

Accolades and Recognition 🌟🏅

Dr. Sihota’s exemplary contributions have garnered accolades, with his Best PhD Thesis of the Year 2021 highlighting his innovative approach and dedication. Being selected as an Alexander von Humboldt Fellow is another significant milestone, reflecting his status as a leading researcher in his field.

Impact and Influence 🌍📈

Dr. Sihota’s work has left a profound impact on both academic and clinical realms. By integrating engineering principles with medical science, he addresses critical challenges in bone health. His research findings have implications for clinicians, researchers, and healthcare policymakers, shaping strategies to prevent and manage bone fragility.

Legacy and Future Contributions 🔮🚀

Dr. Sihota’s legacy is rooted in his commitment to advancing biomedical engineering. Looking ahead, he aims to expand the frontiers of bone health research, exploring new diagnostic tools and innovative treatments for metabolic bone diseases. His vision encompasses fostering interdisciplinary collaboration and mentoring the next generation of researchers.

With a career characterized by excellence, innovation, and compassion, Dr. Praveer Sihota continues to inspire and contribute significantly to the global scientific community. His journey exemplifies the power of perseverance and intellectual curiosity, paving the way for a healthier future. 🌟👨‍🔬

Citations

A total of 315 citations for his publications, demonstrating the impact and recognition of his research within the academic community.

  • Citations         315
  • h-index           22
  • i10-index        10

Notable Publications 

  • Bone-seeking tumor cells alter bone material quality parameters on the nanoscale in mice
    • Authors: Krug, J., Plumeyer, C., Davydok, A., Fiedler, I.A.K., Jähn-Rickert, K.
    • Journal: Biomaterials Advances
    • Year: 2025.
  • Osteomodulin deficiency in mice causes a specific reduction of transversal cortical bone size
    • Authors: Zhao, W., von Kroge, S., Jadzic, J., Schinke, T., Yorgan, T.A.
    • Journal: Journal of Bone and Mineral Research
    • Year: 2024.
  • Lower microhardness along with less heterogeneous mineralization in the femoral neck of individuals with type 2 diabetes mellitus indicates higher fracture risk
    • Authors: Cirovic, A., Schmidt, F.N., Vujacic, M., Busse, B., Milovanovic, P.
    • Journal: JBMR Plus
    • Year: 2024.
  • Type 2 diabetes alters the viscoelastic behavior and macromolecular composition of vertebra
    • Authors: Mehta, D., Sihota, P., Tikoo, K., Kumar, S., Kumar, N.
    • Journal: Bone Reports
    • Year: 2023.
  • The multiscale characterization and constitutive modeling of healthy and type 2 diabetes mellitus Sprague Dawley rat skin
    • Authors: Dwivedi, K.K., Lakhani, P., Sihota, P., Kumar, S., Kumar, N.
    • Journal: Acta Biomaterialia
    • Year: 2023.

Dibyendu Sekhar Bag | Materials Science | Outstanding Scientist Award

Dr. Dibyendu Sekhar Bag | Materials Science | Outstanding Scientist Award

Defence Materials and Stores Research and Development Establishment (DMSRDE), DRDO, India

Author Profile

Early Academic Pursuits 🎓📚

Dr. Dibyendu Sekhar Bag embarked on a rigorous academic journey that laid a strong foundation for his scientific pursuits and contributions. Born with a keen interest in the sciences, Dr. Bag completed his secondary and higher secondary education with first-division distinctions from the West Bengal Board of Secondary Education in 1983 and the West Bengal Council of Higher Secondary Education in 1985, respectively. His academic prowess led him to Burdwan University, where he pursued a Bachelor of Science degree with honors in Chemistry, accompanied by Physics and Mathematics. His undergraduate years were marked by diligence and a budding passion for chemical sciences, culminating in his achievement of a second-division grade.Eager to delve deeper into the world of chemistry, Dr. Bag pursued a Master’s degree in Chemistry at the prestigious Indian Institute of Technology (IIT), Kharagpur, where he specialized in all facets of the field, including Physical, Organic, Inorganic, and Polymer Chemistry. His outstanding performance earned him an impressive CGPA of 9.16 out of 10, reflecting his dedication and academic excellence. Driven by a desire to further his knowledge, he continued his studies at IIT Kharagpur, where he attained a Ph.D. in Polymer Science in 1996. His doctoral research laid the groundwork for his future contributions in the field of material science and polymers, setting him on a path to innovation and discovery.

Professional Endeavors 🏛️🔬

Dr. Bag’s professional journey began with two formative years in industrial research and development at the Ahmedabad Textile Industry’s Research Association. This role allowed him to gain invaluable practical experience in the textile industry, particularly in the field of material applications, where he could apply his expertise in polymer science to address real-world challenges.Following his industrial experience, Dr. Bag transitioned to academia, where he took on teaching and research responsibilities at the Birla Institute of Technology, Mesra. His role in academia not only allowed him to share his knowledge with aspiring scientists but also enabled him to further his own research capabilities. This two-year period in academia marked an essential phase in his career, combining research and mentorship as he worked closely with students and young researchers, nurturing their interest in chemistry and materials science.In 1999, Dr. Bag joined the Defence Materials & Stores Research & Development Establishment (DMSRDE) under the Defence Research and Development Organisation (DRDO) in Kanpur. Over the next 24 years, he dedicated his career to advancing India’s defense capabilities, working on projects essential to national security and defense technology. Rising to the prestigious position of Scientist-G and Additional Director, Dr. Bag became a pivotal figure at DMSRDE, where he focused on materials and stores research, contributing to numerous breakthroughs that have reinforced India’s defense sector.

Contributions and Research Focus 🔍📈

Dr. Bag’s research primarily focuses on polymer science, with a particular emphasis on its applications in defense technology. His work at DMSRDE has involved developing advanced polymeric materials that are vital for the production of durable, high-performance defense equipment. His expertise in polymers has led to the creation of materials that withstand extreme conditions, a crucial requirement in defense applications. Furthermore, his interdisciplinary approach has seen him integrate principles of organic, inorganic, and physical chemistry to push the boundaries of material science, leading to innovative solutions that address the unique challenges faced by the defense sector.Beyond his research in polymers, Dr. Bag has contributed significantly to other aspects of defense materials research. His work encompasses developing environmentally sustainable materials, enhancing the longevity and durability of defense assets, and improving the functionality of materials used in critical defense systems. His contributions have not only strengthened India’s defense materials technology but have also established him as a thought leader in material science research.

Accolades and Recognition 🏆🌟

Over the years, Dr. Bag has earned multiple accolades for his contributions to defense research and material sciences. His innovative research, commitment to excellence, and substantial contributions to defense technology have earned him respect and recognition within DRDO and among the broader scientific community. His rise to the esteemed position of Scientist-G/Additional Director is a testament to his dedication and expertise, and his work continues to inspire peers and young researchers alike.

Impact and Influence 🌐💡

Dr. Bag’s influence extends far beyond the boundaries of DMSRDE and DRDO. His work in polymer science and material engineering has had a profound impact on India’s defense technology, ensuring that the armed forces are equipped with materials that enhance performance and reliability. His research has not only fortified the defense capabilities of the country but has also set new benchmarks in the field of material science. His role in the development of high-performance polymers has paved the way for further advancements, inspiring future researchers to explore new applications of polymer science.In addition to his contributions to defense technology, Dr. Bag’s academic and professional journey serves as an inspiration to students, researchers, and fellow scientists. His dedication to continuous learning and innovation embodies the spirit of scientific inquiry, encouraging others to pursue their research goals with passion and perseverance.

Legacy and Future Contributions 🔮🚀

As Dr. Dibyendu Sekhar Bag continues his work at DMSRDE, his legacy is already taking shape. His contributions to polymer science and defense technology will undoubtedly have a lasting impact, influencing future research and development in material science. Dr. Bag’s commitment to excellence and innovation is a guiding light for upcoming generations of scientists and researchers, who will benefit from his pioneering work and dedication to national service.Looking forward, Dr. Bag aims to continue exploring new frontiers in material science, with a focus on sustainable and resilient materials. His ongoing research is likely to yield further advancements in defense technology, positioning India as a leader in innovative defense materials. With a career marked by scientific rigor, impactful contributions, and a commitment to national progress, Dr. Bag’s journey exemplifies the potential of dedicated research to shape the future of defense and material sciences. His legacy as a scientist, mentor, and innovator will undoubtedly endure, inspiring future generations to pursue excellence in their own academic and professional endeavors.

Citations

A total of 695 citations for his publications, demonstrating the impact and recognition of his research within the academic community.

  • Citations         695
  • h-index           66
  • i10-index        17

Notable Publications 

  • Title: High-performance PPS/PEEK blend and its composites with milled carbon fiber: Study on their mechanical, thermal and dielectric properties
    Authors: Tiwari, S., Bag, D.S., Mishra, P., Lal, G., Dwivedi, M.
    Journal: Polymer Composites
    Year: 2024.
  • Title: Formulation and Characterization of Silane Modified Acrylic Based Transparent Organic-Inorganic Hybrid Coatings for Improved Instrumented Indentation Hardness of PMMA
    Authors: Das, V., Singh, A.S., Singh, A., Mishra, P., Bag, D.S.
    Journal: Silicon
    Year: 2024.
  • Title: Poly (ethylene-co-methacrylic acid) (PEMA) ionomers and their applications including self-healing and shape memory applications
    Authors: Tiwari, S., Bag, D.S., Dwivedi, M.
    Journal: Journal of Polymer Research
    Year: 2024.
  • Title: Self-healing thermoplastic elastomeric blends of zinc-ionomer and styrene–butadiene–styrene block copolymer and their characterization
    Authors: Tiwari, S., Bag, D.S., Dwivedi, M.
    Journal: Polymer International
    Year: 2024.
  • Title: Effect of in-situ Incorporated Silica Particles on Properties of Polyurethane Elastomer
    Authors: Tripathi, N., Singh, A.S., Banshiwal, J.K., Pandey, P., Bag, D.S.
    Journal: Silicon
    Year: 2024.

P.Arockia Michael Mercy | Materials Science | Best Researcher Award

Dr. P.Arockia Michael Mercy | Materials Science | Best Researcher Award

Madonna Arts and Science College for Women, India

Author Profile

Early Academic Pursuits 🎓

Dr. S.R.P. Arockia Michael Mercy embarked on her academic journey with a focus on Physics, completing her Bachelor of Science in Physics from MK University in 2005. Her passion for the subject led her to pursue a Master’s in Physics at Arul Anandar College, affiliated with MK University, completing it in 2017. This foundational education ignited her curiosity in the fields of microstrip patch antennae and solar cells, motivating her to delve further into research. Driven by her dedication to innovation and scientific advancement, she earned her PhD in Physics from MK University in 2023, marking a significant milestone in her academic journey.

Professional Endeavors and Teaching Experience 👩‍🏫

Dr. Mercy’s career as an educator began with her role as an Assistant Professor at Madonna Arts and Science College for Women, where she has devoted eight years to shaping the minds of future scientists. With her teaching interests spanning various subjects, including Physics laboratory practices, and personal passions like choir, dance, and hand arts, she has contributed to the academic and holistic growth of her students. Her dedication to teaching goes beyond mere theoretical knowledge, as she emphasizes hands-on learning and practical applications of physics concepts in real-world settings. Her versatility and passion for various forms of art also enrich her classroom experience, creating a dynamic and inclusive learning environment.

Contributions and Research Focus 🔬

Dr. Mercy’s research interests lie primarily in Microstrip Patch Antenna and Solar Cells, fields that have tremendous potential for impacting technology and sustainability. Microstrip patch antennas, known for their compact size and efficiency, are essential in modern communication systems, from mobile devices to satellite applications. Dr. Mercy’s research contributes to advancements in antenna technology, focusing on enhancing signal clarity, reducing interference, and improving overall efficiency. Her work in solar cells aligns with the global pursuit of renewable energy sources. By exploring innovative materials and designs, she contributes to making solar technology more accessible and efficient, aiming to reduce environmental impact and dependence on fossil fuels.

Accolades and Recognition 🏅

Throughout her career, Dr. Mercy has been recognized for her dedication to education and commitment to research. Her innovative approaches in the classroom and contributions to her research areas have earned her respect among colleagues and students alike. Her research in microstrip patch antennae and solar cells is particularly noteworthy in academic circles, as these fields are both highly competitive and impactful. She has also participated in various academic conferences, sharing her findings and insights with fellow researchers and contributing to the broader scientific community.

Impact and Influence 🌍

Dr. Mercy’s influence extends beyond her classroom, reaching her students, colleagues, and the scientific community. As a mentor, she encourages her students to pursue their passions, fostering a culture of curiosity and perseverance. Her work in microstrip patch antennae and solar cells is relevant not only in academia but also in industries focused on communications and renewable energy. By aligning her research with global needs for sustainable energy and advanced communication technology, she has positioned herself as an advocate for positive change and innovation.

Legacy and Future Contributions 🚀

As Dr. Mercy continues her journey in academia and research, her contributions promise to leave a lasting legacy. Her students benefit not only from her knowledge in physics but also from her holistic approach to learning, which includes arts and creative thinking. Her ongoing research in microstrip patch antennae and solar cells holds the potential for groundbreaking discoveries that could influence these fields for years to come. As she expands her research and engages in collaborative projects, Dr. Mercy aims to inspire future generations of physicists and researchers to pursue innovation and sustainability.

Citations

A total of 21 citations for his publications, demonstrating the impact and recognition of his research within the academic community.

  • Citations         21
  • h-index           12
  • i10-index        3

Notable Publications 

  • Title: Novel nanocomposite based microstrip patch antenna for C and X band applications
    Author(s): Mercy, P.A.M.
    Journal: Materials Chemistry and Physics
    Year: 2024.
  • Title: Gain Enhancement of Composite Photonic Crystal Microstrip Patch Antenna Inspired by Maxwell Garnett Model for C-Band, X-Band and Ku Band Applications
    Author(s): Mercy, P.A.M., Wilson, K.S.J.
    Journal: Crystal Research and Technology
    Year: 2024.
  • Title: Comparative Study of Polarization-Dependent Conversion Efficiency of GaAs and Si Solar Cells at Oblique Incident Angles Using Surface DLAR Coating of MgF2/ZnSe
    Author(s): Mercy, P.A.M., Wilson, K.S.J.
    Journal: Crystal Research and Technology
    Year: 2024.
  • Title: A Comparative Study of Diverse RF-MEMS Switch Design Concepts Experimentally Verified up to 110 GHz for Beyond-5G, 6G and Future Networks Applications
    Author(s): Iannacci, J., Tagliapietra, G., Donelli, M., Guha, K., Lenka, T.R.
    Journal: Lecture Notes in Electrical Engineering
    Year: 2024.
  • Title: Development of environmental friendly high performance Cs2TiBr6 based perovskite solar cell using numerical simulation
    Author(s): Mercy, P.A.M., Wilson, K.S.J.
    Journal: Applied Surface Science Advances
    Year: 2023.

Kashinath Bogle | Thin film and Devices | Excellence in Applied Research Award

Assist Prof Dr. Kashinath Bogle - Thin film and Devices - Excellence in Applied Research Award 🏆 

Swami Ramanand Teerth Marathwada University, Nanded - India

Professional Profiles

Early Academic Pursuits

He embarked on his academic journey with a keen interest in the realm of thin film and devices. His passion for understanding semiconductor materials and nanotechnology drove him to pursue higher education in this field. During his undergraduate studies, he delved deep into the fundamentals of electronics and semiconductor physics, laying a solid foundation for his future endeavors. His academic pursuits were marked by rigorous research and a thirst for knowledge, shaping his path towards becoming a renowned expert in thin film technology.

Professional Endeavors

After completing his academic qualifications, he transitioned into the professional world with a strong focus on thin film and devices. He embarked on a career dedicated to advancing semiconductor technology and exploring the potential of thin film materials in various applications. Bogle's professional journey led him to collaborate with leading research institutions and industry partners, where he contributed his expertise to cutting-edge projects and technological innovations.

Contributions and Research Focus in Thin film and Devices

Throughout his career, he has made significant contributions to the field of thin film and devices. His research has focused on the development of novel thin film materials, fabrication techniques, and device integration strategies. Bogle's work has led to advancements in semiconductor technology, enabling the creation of high-performance electronic devices with enhanced functionality and reliability. His research endeavors have spanned a wide range of applications, including optoelectronics, photovoltaics, sensors, and more, demonstrating the versatility and potential of thin film materials in modern technology.

Accolades and Recognition

His contributions to thin film and devices have garnered widespread acclaim and recognition within the scientific community. He has been honored with prestigious awards such as the Excellence in Applied Research Award, acknowledging his outstanding achievements and innovative research efforts. Bogle's work has been published in top-tier scientific journals and presented at international conferences, further solidifying his reputation as a leading authority in the field.

Impact and Influence

His research in thin film and devices has had a profound impact on various industries and sectors. His advancements have paved the way for the development of next-generation electronic devices with improved performance, efficiency, and functionality. Bogle's innovative solutions have been instrumental in addressing key challenges in semiconductor technology, driving progress and innovation in fields such as communications, energy, healthcare, and beyond. His work continues to inspire and influence researchers, engineers, and innovators worldwide, shaping the future of thin film technology.

Legacy and Future Contributions

As a trailblazer in the field of thin film and devices, his legacy is defined by his pioneering research, groundbreaking discoveries, and enduring contributions to science and technology. His work has laid the groundwork for future advancements in semiconductor materials and device technology, opening up new possibilities for innovation and discovery. Bogle remains committed to pushing the boundaries of knowledge and exploring the untapped potential of thin film materials, with a vision of creating transformative technologies that will shape the future of electronics and beyond.

Citations

  • Citations               1544
  • h-index                 19
  • i10-index              32

Notable Publications

Hemavathi B | Organic Semiconductors for Energy | Best Researcher Award

Dr. Hemavathi B - Organic Semiconductors for Energy - Best Researcher Award 🏆

Dayananda Sagar College of Engineering - India

Professional Profiles

Early Academic Pursuits

Her academic journey is marked by a profound commitment to the field of Chemistry, with a focus on renewable energy and organic semiconductors. She obtained her Bachelor's degree in Polymer Science and Technology from Sri Jayachamarajendra College of Engineering, where she excelled with distinction. Her passion for research led her to pursue a Master's degree in Chemistry from Bhuvaneshwari College, followed by an M.Phil and Ph.D. in Chemistry from the Centre for Nano and Materials Science at Jain University. Her doctoral thesis, titled "Synthesis of conjugated small molecules and polymers for photovoltaic applications," reflects her early dedication to exploring the potential of organic semiconductors for energy generation.

Professional Endeavors

Her professional journey encompasses diverse roles in academia and industry, all centered around her expertise in organic semiconductors for energy applications. She has served as both a Junior and Senior Research Fellow at the Centre for Nano and Material Science, Jain University, where she focused on synthesizing organic molecules and polymers for solar cell applications. Additionally, she has contributed to the academic community as a Lecturer of Chemistry at CPP Junior College, Bangalore. Her industry experience includes roles at LM Glasfiber India Pvt. Ltd., where she worked in production technology application and planning.

Contributions and Research Focus in Organic Semiconductors for Energy

Her research is characterized by her pioneering work in designing and synthesizing conjugated organic molecules and polymers for renewable energy applications. She has made significant contributions to the fabrication of solar cell devices, including dye-sensitized solar cells (DSSCs) and organic photovoltaics (OPVs). Her expertise extends to a range of analytical techniques, including IR, UV, PL, CV, and interpretation of molecules using NMR and mass spectrometry. Through her research, She aims to advance the field of organic electronics and contribute to the development of sustainable energy solutions.Organic semiconductors for energy represent a promising avenue for advancing renewable energy technologies. These materials, derived from organic compounds, offer unique properties that make them attractive for applications such as photovoltaics, energy harvesting, and energy storage. Organic semiconductors hold the potential to revolutionize the renewable energy landscape by enabling the development of efficient, cost-effective, and environmentally friendly energy solutions.

Accolades and Recognition

Her contributions to the field of organic semiconductors for energy have been recognized through various accolades and acknowledgments. Her research publications and presentations have garnered attention within the scientific community, showcasing her innovative approaches and insights. Additionally, her hands-on experience with advanced analytical techniques has positioned her as a respected authority in the field of renewable energy research. Organic electronics, including organic photovoltaics (OPVs) and thin-film transistors (TFTs), are key areas of research within the field of organic semiconductors for energy. OPVs, in particular, hold great promise for solar energy conversion due to their lightweight, flexible, and potentially low-cost nature. By harnessing sunlight and converting it into electricity, organic solar cells pave the way for decentralized energy generation and offer a sustainable alternative to traditional fossil fuel-based power sources.

Impact and Influence

Her research has had a tangible impact on the advancement of renewable energy technologies, particularly in the realm of organic semiconductors. Her work has contributed to the understanding and optimization of materials for solar cell applications, paving the way for more efficient and cost-effective energy harvesting solutions. Furthermore, her mentorship and guidance have inspired future generations of researchers to pursue careers in sustainable energy and organic electronics.

Legacy and Future Contributions

Her legacy is defined by her dedication to pushing the boundaries of knowledge in the field of organic semiconductors for energy. As she continues her academic and research endeavors, she remains committed to exploring new avenues for enhancing the performance and scalability of renewable energy technologies. Her future contributions hold the promise of unlocking new insights and innovations that will shape the future of sustainable energy production and utilization. Her legacy will endure through her ongoing commitment to advancing the frontiers of renewable energy research and her influence on the next generation of scientists and engineers in the field.

Citations

  • Citations               249
  • h-index                   10
  • i10-index                10

Notable Publications