Mr. Pinaki Shankar Saha Prithu – Water Electrolysis – Young Scientist Award

Mr. Pinaki Shankar Saha Prithu - Water Electrolysis - Young Scientist Award

University of Science and Technology of China - China

Author Profile 

ORCID 

🎓 Early academic pursuits

Pinaki Shankar Saha Prithu began his educational journey with outstanding performances at dhaka residential model college, achieving perfect gpa scores in both his secondary and higher secondary school certificates (2009–2013). he pursued his undergraduate degree in textile engineering from the bangladesh university of textiles, where he laid the groundwork for his later transition into advanced material sciences. recognizing his passion for research, he pursued his m.sc. in material science and engineering from chongqing university, china, graduating with a cgpa of 3.56/4.00. currently, he is engaged in a ph.d. in material science and engineering at the university of science and technology of china, part of the prestigious chinese academy of sciences.

💼 Professional endeavors

Pinaki's career reflects a progressive shift from the textile industry to the high-impact field of material science. he initially served as a management trainee officer at victory city international holdings ltd. in guangzhou, where he gained industrial insights into textile manufacturing. his subsequent roles at labib dyeing mills and dr. petry gmbh involved applied research, process Water Electrolysis optimization, and quality assurance. this industrial grounding prepared him for his academic research roles, including his tenure as a graduate research assistant at chongqing university and currently at the university of science and technology of china, where he delves into nanomaterials and power electronics-driven catalytic technologies.

🔬 Contributions and research focus

Pinaki has made significant contributions in the field of catalysis, nanostructured materials, and energy storage, with a special emphasis on material characterization, carbon nanotubes, and mxene-based catalysts. his master’s thesis focused on the preparation of ru-co and ru-ga nano (hydr)oxide catalysts for water electrolysis. he has authored impactful Water Electrolysis research papers, including a high-profile publication in the international journal of hydrogen energy (2025), detailing the performance of ru-conc@cnt bifunctional catalysts for water splitting. his current ph.d. research expands on high entropy alloy catalysts for her, oer, aor, orr, and hor, integrating principles of power electronics to enhance electrochemical efficiency.

🌍 Impact and influence

Pinaki’s interdisciplinary expertise bridges textile engineering and advanced material science, making him a unique contributor in his field. his research on bifunctional nanohybrid catalysts addresses pressing global challenges related to renewable energy and sustainable chemical production. he also co-authored a study on textile-based soft robotics for differently-abled Water Electrolysis individuals, highlighting his commitment to inclusive innovation. his evolving work continues to influence domains where power electronics, electrocatalysis, and nanotechnology intersect, further cementing his growing reputation.

📈 Academic citations

Pinaki’s publications are gaining scholarly recognition, particularly his work published in top-tier journals such as the international journal of hydrogen energy and the journal of material science. his research on ru-ga nc@mxene catalysts and soft robotic textiles has been cited in works focused on clean energy and biomedical applications. his google scholar and researchgate profiles reflect a steadily increasing academic footprint, drawing attention from global researchers in nanomaterials and power electronics.

🔮 Legacy and future contributions

Pinaki’s trajectory illustrates a vision rooted in scientific innovation and interdisciplinary synergy. his ongoing ph.d. work is expected to generate transformative knowledge in the field of high-entropy alloy electrocatalysts. looking ahead, he aims to lead research that integrates power electronics with advanced catalytic materials to develop scalable, low-energy-demand systems for global clean energy applications. his legacy is forming around pioneering contributions to sustainable technologies, educational mentorship, and industrial-academic collaboration.

Notable Publications 

  • Title: High-performance bifunctional Ru–CoNC@CNT catalyst for efficient water splitting
    Author(s): Pinaki Shankar Saha Prithu, Jinzhou Li, Chaowen Tan, Chengzhen Hou, Xuewei Lv, Jie Dang
    Journal: International Journal of Hydrogen Energy

  • Title: Review: Textile-based soft robotics for physically challenged individuals
    Author(s): Akhiri Zannat, Mohammad Nasir Uddin, Sharif Tasnim Mahmud, Pinaki Shankar Saha Prithu, Rony Mia
    Journal: Journal of Materials Science

Mrs.  Shubnikova Elena – Membrane science – Best Researcher Award

Mrs.  Shubnikova Elena - Membrane science - Best Researcher Award

Institute of Solid State Chemistry and Mechanochemistry, Siberian Branch of the Russian Academy of Sciences - Russia 

Author Profile

SCOPUS

ORCID 

Early academic pursuits 🎓

Shubnikova Elena’s academic journey began at novisibirsk state university, where she received her specialist diploma in 2014. from a young age, she was fascinated by the complex world of solid-state chemistry, which guided her into further studies. she earned her ph.d. in 2019 from the institute of solid state chemistry and mechanochemistry at the siberian branch of the russian academy of sciences. her strong foundation in materials science and chemistry propelled her into cutting-edge research in energy-related materials.

Professional endeavors 🏢

currently, elena is a researcher at the laboratory of materials and technologies for hydrogen energy, part of the institute of solid state chemistry and mechanochemistry in novosibirsk. her professional path is rooted in exploring innovative technologies for energy solutions, particularly hydrogen energy. her work focuses on developing materials that improve energy efficiency, with an emphasis on solid-state chemistry and oxygen-related transport mechanisms.

Contributions and research focus 🔬

elena’s primary research interests lie in materials science, with a particular focus on perovskites, oxygen transport, and diffusion. her work extends to studying the reactivity of solids and oxygen surface exchange, critical for advancing technologies like solid oxide fuel cells and oxygen Membrane science permeable membranes. she is also deeply involved in creating catalytic membrane reactors, contributing to advancements in sustainable energy technologies. her research has profound implications for improving the efficiency of energy systems, particularly in hydrogen energy.

Accolades and recognition 🏅

Elena’s research has been recognized internationally, with her findings published in prestigious journals such as the journal of european ceramic society, journal of industrial and engineering chemistry, journal of alloys and compounds, ceramics international, and the international journal of Membrane science hydrogen energy. her work has made significant contributions to the understanding of oxygen transport and its applications in energy systems, earning her respect in the scientific community.

Impact and influence 🌍

Elena’s work has a significant impact on the field of hydrogen energy and solid-state chemistry. her contributions to the development of materials for oxygen diffusion and permeable membranes are paving the way for more efficient and sustainable energy technologies. her Membrane science research plays a vital role in advancing solid oxide fuel cells, which are critical in the transition to cleaner energy sources. her work in catalytic membrane reactors also holds promise for innovative applications in energy production and storage.

Legacy and future contributions 🔮

with a focus on sustainable and energy-efficient materials, elena’s legacy lies in her pioneering contributions to hydrogen energy and solid-state chemistry. as she continues her research, her future work will undoubtedly explore new frontiers in energy technologies, solid oxide fuel cells, and perovskite-based materials. her research has the potential to drive significant advancements in the energy sector, contributing to a more sustainable future.