Ravi Bathe – Ultrafast Laser Interaction – Best Researcher AwardĀ 

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Dr. Ravi Bathe's academic journey began with a solid foundation in Physics, earning his B.Sc. in Physics from Pune University in 1993 with First Class with Distinction. He continued his education with an M.Sc. in Physics from Pune University in 1995, also securing First Class. His deep interest in condensed matter physics led him to pursue a Ph.D. in Physics at Pune University, completing his doctoral work in 2000. His Ph.D. thesis, titled "Influence of Dopants and Defects on the Properties of Colossal Magnetoresistance Manganite Systems," focused on advanced material properties, laying the groundwork for his future research endeavors.

šŸ’¼Ā Professional Endeavors

Dr. Bathe's professional career has been marked by significant roles in renowned institutions, beginning with his current position as a Scientist at ARCI, Hyderabad, which he has held since 2003. He has also had prestigious international experience, including serving as a Visiting Scientist (IUSSTF Fellow) at Harvard University, Cambridge, USA, from 2009 to 2010. Earlier, Dr. Bathe worked as a Young Scientist (Fast Track Fellow) at the University of Pune (2002-2003) and as a Postdoctoral Research Fellow at the University of Maryland, College Park, USA (2000-2002). His career has been defined by his contributions to research in ultrafast laser interaction and material sciences, particularly in condensed matter and nanophysics.

šŸ”¬Ā Contributions and Research Focus

Dr. Bathe's research primarily focuses on the interaction of ultrafast lasers with materials, a field that has substantial applications in both basic science and technology. His research has significantly advanced the understanding of ultrafast laser dynamics, material properties, and their interaction with complex systems, particularly in relation to colossal magnetoresistance manganite systems. His work in ultrafast laser interaction is pivotal in developing new materials with tailored properties, advancing technologies such as ultrafast optical switches and high-precision measurement tools.

šŸŒĀ Impact and Influence

Dr. Bathe's work in the field of ultrafast laser interaction has had a profound impact on both the academic and technological communities. His research has opened new avenues for understanding the behavior of materials under high-intensity laser fields, influencing multiple subfields in physics and materials science. As a result of his expertise, Dr. Bathe has become a sought-after researcher and speaker at international conferences and has contributed to advancements in ultrafast optics, magnetoresistive materials, and laser-material interactions. His influence also extends through his roles in prestigious research fellowships and collaborations, including at Harvard University and the University of Maryland.

šŸ†Academic Cites

Dr. Ravi Batheā€™s research has earned significant recognition in the academic world, with numerous citations of his work on ultrafast laser interaction. His publications have become essential references for researchers in the fields of materials science, ultrafast optics, and condensed matter physics. The citations of his work demonstrate the relevance and importance of his contributions, which continue to shape future research in ultrafast laser dynamics and material characterization.

šŸŒŸĀ Legacy and Future Contributions

Looking to the future, Dr. Bathe is committed to further advancing research in ultrafast laser interaction, particularly exploring new materials and techniques to manipulate laser-material interactions at even finer timescales. His ongoing work promises to lead to the development of advanced technologies in ultrafast optics, laser spectroscopy, and material design. As a mentor and researcher, Dr. Batheā€™s legacy will undoubtedly influence future generations of scientists, particularly those working on cutting-edge material science and ultrafast laser technologies.

šŸ“Ultrafast Laser Interaction

Dr. Ravi Bathe's extensive research into ultrafast laser interaction has provided critical insights into how materials respond to intense, high-speed laser pulses. His work in ultrafast laser interaction has paved the way for new experimental techniques and technologies, especially in condensed matter and nanophysics. His groundbreaking contributions to ultrafast laser interaction continue to have a significant impact on both theoretical studies and practical applications in the development of advanced materials and laser technologies.

Notable Publication

šŸ“Transition-element doping effects in Laā‚€.ā‚‡Caā‚€.ā‚ƒMnOā‚ƒ

Authors: K Ghosh, SB Ogale, R Ramesh, RL Greene, T Venkatesan, KM Gapchup, ...

Journal: Physical Review B

Year: 1999

Citations: 361

šŸ“Electrical, thermal, and microstructural characteristics of Ti/Al/Ti/Au multilayer Ohmic contacts to n-type GaN

Authors: A Motayed, R Bathe, MC Wood, OS Diouf, RD Vispute, SN Mohammad

Journal: Journal of Applied Physics

Year: 2003

Citations: 230

šŸ“Transport properties, magnetic ordering, and hyperfine interactions in Fe-doped Laā‚€.ā‚‡ā‚…Caā‚€.ā‚‚ā‚…MnOā‚ƒ: Localization-delocalization transition

Authors: SB Ogale, R Shreekala, R Bathe, SK Date, SI Patil, B Hannoyer, F Petit, ...

Journal: Physical Review B

Year: 1998

Citations: 213

šŸ“Laser surface texturing of gray cast iron for improving tribological behavior

Authors: R Bathe, V Sai Krishna, SK Nikumb, G Padmanabham

Journal: Applied Physics A

Year: 2014

Citations: 107

šŸ“Multi-objective optimisation of pulsed Nd:YAG laser cutting process using integrated ANNā€“NSGAII model

Authors: S Chaki, RN Bathe, S Ghosal, G Padmanabham

Journal: Journal of Intelligent Manufacturing

Year: 2018

Citations: 88

šŸ“Fluxless arc weld-brazing of aluminium alloy to steel

Authors: KP Yagati, RN Bathe, KV Rajulapati, KBS Rao, G Padmanabham

Journal: Journal of Materials Processing Technology

Year: 2014

Citations: 77

šŸ“Evaluation of manganite films on silicon for uncooled bolometric applications

Authors: RJ Choudhary, AS Ogale, SR Shinde, S Hullavarad, SB Ogale, ...

Journal: Applied Physics Letters

Year: 2004

Citations: 71

Marilena Carbone – Femtosecond Lasers – Excellence in Research

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Prof. Dr. Marilena Carbone - Femtosecond Lasers - Excellence in ResearchĀ 

University of Rome Tor Vergata - Italy

Author Profile

Scopus

Orcid

šŸŽ“Ā Early Academic Pursuits

Prof. Dr. Marilena Carboneā€™s academic journey began with a strong foundation in chemistry, where she developed a deep interest in material science and its applications. Her early academic pursuits were focused on understanding the synthesis and characterization of complex materials, leading her to explore hybrid organic-inorganic materials, nanoparticles, and nanomaterials. She pursued advanced studies in this field, ultimately shaping her research interests towards the synthesis, functionalization, and characterization of various nanomaterials, including carbon quantum dots and metal oxide nanoparticles.

šŸ’¼Ā Professional Endeavors

Prof. Dr. Carboneā€™s professional endeavors have spanned multiple facets of academia and research. As a faculty member at the University of Tor Vergata, she has contributed significantly to the advancement of material science. She has played pivotal roles in various financed projects, including serving as the Principal Investigator for PRIN2022 GREEN3, a project focused on the synthesis of sustainable materials. Additionally, she led SPECTRAFOOD (2020-2022), a project focusing on food quality control and contaminants detection via fluorescence. Her expertise in advanced laser treatments and spectroscopic analysis has driven her to explore cutting-edge applications in catalysis, biomedical fields, and environmental detection.

šŸ”¬Ā Contributions and Research Focus

Prof. Dr. Carboneā€™s contributions to material science are vast, with a specific focus on the synthesis and functionalization of hybrid organic-inorganic materials, metal oxide nanoparticles, and carbon nanomaterials. Her research has explored the interaction between carbon quantum dots and metal oxide nanoparticles and their application in catalysis, biomedical diagnostics, and environmental detection, particularly in food safety and heavy metal detection. She has also contributed to the application of femtosecond lasers in ink treatments and surface manipulation of semiconductors. Her work in utilizing femtosecond lasers has led to significant advancements in high-resolution surface spectroscopy and microscopy, especially in photoemission and scanning tunneling microscopy (STM) of silicon surfaces.

šŸŒĀ Impact and Influence

Prof. Dr. Carboneā€™s impact and influence in the scientific community are demonstrated by her substantial contributions to various research areas, particularly in nanomaterials, spectroscopy, and femtosecond laser applications. Her work has been widely cited, and her research continues to influence both academic and industrial applications in catalysis, biomedical diagnostics, and food quality control. As a member of multiple institutional commissions and an active educator, she has shaped the curriculum in chemistry and pharmacy at the University of Tor Vergata. Her leadership in various projects and committees has had a lasting impact on the development of new research pathways and teaching methodologies in material science.

šŸ†Academic Cites

With 136 published papers and an h-index of 35, Prof. Dr. Carboneā€™s work has received over 3,200 citations on Scopus. Her contributions to the fields of nanomaterials, spectroscopy, and femtosecond lasers have been recognized globally, placing her among the top 2% of scientists in 2021, 2022, and 2023. The widespread citation of her work underscores the significance of her research and its broad application in multiple industries.

šŸŒŸĀ Legacy and Future Contributions

Looking to the future, Prof. Dr. Carbone aims to continue her pioneering work in the synthesis of advanced materials and their applications in various fields, including catalysis, biomedicine, and environmental monitoring. Her future contributions are expected to expand the scope of femtosecond laser applications in material science and technology, particularly in the precision treatment of surfaces and the development of new diagnostic tools. She will continue to mentor young researchers and drive innovative research, further cementing her legacy as a leader in her field.

šŸ“Femtosecond Lasers

Prof. Dr. Carboneā€™s innovative use of femtosecond lasers in material synthesis and surface manipulation has been a key focus of her research. Her application of femtosecond lasers in ink treatments and semiconductor surface manipulation has led to breakthroughs in material characterization and the development of new technologies. As femtosecond lasers continue to shape the future of material science, Prof. Dr. Carboneā€™s research is poised to further advance the field, creating new possibilities for diagnostics, environmental monitoring, and catalysis.

Notable Publication

šŸ“Heck reaction between free base 2-Br-porphyrin and vinyl-ferrocene derivatives. Electrochemical and spectroscopic characterization of Ī²-functionalised alpha and trans-vinyl-ferrocene porphyrin derivatives. A comparative study

Authors: Demingo, M., Lembo, A., Petrella, G., Cicero, D.O., Tagliatesta, P.

Journal: New Journal of Chemistry

Year: 2024

Citations: 0

šŸ“Voronoi Tessellation as a Tool for Predicting the Formation of Deep Eutectic Solvents

Authors: Cappelluti, F., Gontrani, L., Mariani, A., Carbone, M., Bonomo, M.

Journal: Journal of Chemical Information and Modeling

Year: 2024

Citations: 0

šŸ“Ionic Twin Nanostructural Comparison: Propylammonium Butanoate vs. Butylammonium Propanoate and Their Interactions with Water

Authors: Salma, U., Plechkova, N.V., Gontrani, L., Carbone, M.

Journal: Materials

Year: 2024

Citations: 0

šŸ“Metal Ion Microwave-Assisted Depolymerization of Poly(Ethylene Terephthalate): A Zinc Salts-Based Deep Eutectic Solvent as Case Study

Authors: Ricci, C., Gontrani, L., Bauer, E.M., Casoli, L., Carbone, M.

Journal: Crystals

Year: 2024

Citations: 0

šŸ“Green zinc/galactomannan-based hydrogels push up the photovoltage of quasi-solid aqueous dye-sensitized solar cells

Authors: Segura Zarate, A.Y., Gontrani, L., Galliano, S., Bonomo, M., Carbone, M.

Journal: Solar Energy

Year: 2024

Citations: 4

šŸ“Inulin-Coated ZnO Nanoparticles: A Correlation between Preparation and Properties for Biostimulation Purposes

Authors: Gontrani, L., Bauer, E.M., Casoli, L., Quaranta, S., Carbone, M.

Journal: International Journal of Molecular Sciences

Year: 2024

Citations: 3