Ji Hyun Um | Electrochemistry | Innovative Research Award

Published on by Chemistry Awards

Innovative Research Award

Researcher: Ji Hyun Um
Institution: Kongju National University

Ji Hyun Um
Affiliation Kongju National University
Country South Korea
Scopus ID 56043633200
Documents 37
Citations 1611
h-index 23
Subject Area Electrochemistry
Event International Chemistry Scientist Awards
ORCID 0000-0002-8783-5910

The Innovative Research Award recognizes Ji Hyun Um of Kongju National University for sustained scholarly contributions to electrochemistry and related materials research. The profile summarizes academic achievements, research output, publication impact, and professional recognition using publicly available scholarly indicators and references. It is presented in a neutral encyclopedic style suitable for academic recognition and institutional documentation.[1]

Abstract

Ji Hyun Um is an electrochemistry researcher affiliated with Kongju National University whose scholarly activities emphasize electrochemical materials, energy-related technologies, and advanced functional systems. With 37 indexed publications, 1,611 citations, and an h-index of 23, the research portfolio demonstrates sustained scientific influence within the international research community. Published studies have contributed to improved understanding of electrochemical mechanisms, material performance, and practical technological applications. These measurable research achievements, together with continuous academic dissemination and collaboration, provide a strong foundation for recognition through the Innovative Research Award while highlighting commitment to scientific excellence and impactful innovation.[1]

Keywords

Electrochemistry, Energy Materials, Functional Materials, Electrochemical Analysis, Scientific Innovation, Research Excellence, Advanced Materials, Catalytic Systems, Academic Research, Innovative Research Award.

Introduction

Electrochemistry plays an essential role in developing sustainable technologies for energy conversion, storage, sensing, and environmental applications. Researchers in this discipline combine materials science with electrochemical principles to improve efficiency and reliability. Ji Hyun Um has contributed to this evolving field through peer-reviewed research and collaborative scientific investigations.[2]

Research Profile

The research profile reflects consistent scholarly productivity supported by internationally indexed publications and measurable citation performance. Affiliated with Kongju National University, Ji Hyun Um has established an academic record characterized by quality publications, interdisciplinary collaboration, and recognized contributions within electrochemistry and advanced materials research.[1]

Research Contributions

Research contributions focus on electrochemical materials, reaction mechanisms, and functional material performance. Published investigations have enhanced understanding of material behavior under electrochemical conditions while supporting technological developments relevant to sustainable energy and advanced analytical applications through experimental and collaborative scientific research.[3]

Publications

The publication record includes 37 Scopus-indexed documents demonstrating steady scientific productivity. These works have appeared in recognized peer-reviewed journals covering electrochemistry, materials science, and related disciplines. Citation performance indicates that several publications have received broad academic attention and continue influencing subsequent research.[1]

Research Impact

An h-index of 23 and more than 1,600 citations illustrate meaningful research visibility and influence. These indicators suggest that published findings have been referenced extensively by the scientific community, reflecting continued relevance and contribution to electrochemistry and related technological research areas.[3]

Award Suitability

Based on publication quality, citation metrics, research consistency, and international scholarly visibility, Ji Hyun Um demonstrates characteristics commonly associated with academic recognition programs. The documented achievements align with the objectives of the Innovative Research Award by highlighting sustained scientific productivity and measurable research impact.[1]

Conclusion

Ji Hyun Um has developed a strong academic profile through sustained research, impactful publications, and internationally recognized scholarly contributions. Objective research indicators and continuing scientific engagement support recognition for innovation and excellence while demonstrating meaningful contributions to electrochemistry and contemporary materials research.[4]

References

  1. Elsevier. (n.d.). Scopus Author Details: Ji Hyun Um, Author ID 56043633200. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=56043633200
  2. ORCID. (n.d.). Ji Hyun Um Research Profile.
    https://orcid.org/0000-0002-8783-5910
  3. Kim, H., Choi, W., Yoon, J., Um, J. H., Lee, W., Kim, J., Cabana, J., & Yoon, W. S. (n.d.). Exploring anomalous charge storage in anode materials for next-generation Li rechargeable batteries.
    https://www.researchgate.net/publication/339515760
  4. Um, J. H., & Yu, S. H. (n.d.). Unraveling the mechanisms of lithium metal plating/stripping via in situ/operando analytical techniques.
    https://www.researchgate.net/publication/348011197

Dr. Muhammad Yousaf | Energy Storage | Editorial Board Member

Published on by Chemistry Awards

Dr. Muhammad Yousaf | Energy Storage | Editorial Board Member

Research Scientist | Shenzhen University | China

Dr. Muhammad Yousaf is a multidisciplinary researcher specializing in nanomaterials, semiconductor physics, ferrite-based functional materials, and advanced energy technologies, with a strong focus on solid oxide fuel cells, electrochemical energy storage, and dielectric applications. His research integrates material synthesis, interfacial engineering, defect chemistry, electrocatalysis, and charge transport phenomena to develop next-generation energy devices operating efficiently at low temperatures. Dr. Yousaf has made significant contributions to proton-, oxygen-ion-, and electron-conducting materials, pioneering heterostructure interfaces, dual-functional electrolytes, and advanced ferrite semiconductors for fuel cell applications. His expertise spans solid oxide electrolysis materials for hydrogen production, dielectric materials for antenna systems, magnetic nanomaterials, mixed ionic-electronic conductors, and high-performance semiconductor devices. He has also extensively explored spinel, garnet, and hexagonal ferrites for magneto-optical, microwave absorption, and high-frequency applications. Dr. Yousaf is proficient with a broad range of advanced characterization and computational tools, enabling deep insights into structural, electronic, and electrochemical properties of functional materials. With over 100 peer-reviewed publications as first, corresponding, equal-first, or co-author, he has demonstrated a sustained and impactful research output. His work has earned 2453 citations on Google Scholar (h-index 31, i10-index 68) and 2243 citations on Scopus across 104 documents (h-index 29), reflecting strong international recognition. His ongoing research continues to drive innovation in nano-energy devices, catalytic interfaces, and next-generation energy storage and conversion systems.

Profiles : Google Scholar | Scopus 

Featured Publications :

  1. Yousaf, M., Lu, Y., Akhtar, M. N., Khawaja, A. S., Batoo, K. M., Hussain, S., Noor, A., et al. (2023). Tailoring triple charge (O2−/H+/e−) conducting nature of Fe-based lanthanum doped samarium oxides for ceramic fuel cells (CFCs). Fuel, 349, 128689.

  2. Yousaf, M., Lu, Y., Hu, E., Akbar, M., Shah, M. A. K. Y., Noor, A., Akhtar, M. N., et al. (2024). Advances in solid oxide fuel cell technologies: Lowering the operating temperatures through material innovations. Materials Today Proceedings.

  3. Yousaf, M., Lu, Y., Hu, E., Akbar, M., Shah, M. A. K. Y., Noor, A., Akhtar, M. N., et al. (2023). Interfacial disordering and heterojunction enabling fast proton conduction. Small Methods, 2300450.

  4. Yousaf, M., Mushtaq, N., Zhu, B., Wang, B., Akhtar, M. N., Noor, A., & Afzal, M. (2020). Electrochemical properties of Ni0.4Zn0.6Fe2O4 and the heterostructure composites (Ni–Zn ferrite-SDC) for low temperature solid oxide fuel cell (LT-SOFC). Electrochimica Acta, 331, 135349.

  5. Akbar, N., Yousaf, M., Shah, M. A. K. Y., Ahmed, J., Noor, A., Islam, Q. A., Wu, Y., et al. (2025). Boosted proton conduction in LAO electrolyte through Li segregation for high-performance ceramic fuel cells. Fuel, 386, 134255.

Dr. Chenxu Wang | Electrochemistry | Green Chemistry Award

Published on by Chemistry Awards

Dr. Chenxu Wang | Electrochemistry | Green Chemistry Award

Dr. Chenxu Wang , Electrochemistry ,Research associate at University of Texas at Dallas, United States

Dr. Chenxu Wang is a dynamic and innovative Research Associate at the BEACONS Center, University of Texas at Dallas. With a solid foundation in electrochemical energy storage, he completed his Ph.D. in 2023 from Washington State University under the mentorship of Dr. Weihong Zhong. Since 2016, he has consistently contributed to the field of battery technology, focusing on lithium-ion, lithium-metal, and sodium-ion systems. His research incorporates cutting-edge innovations such as protein-based solid-state materials for enhanced battery safety and performance. Alongside academic excellence, Dr. Wang brings hands-on experience from the battery manufacturing industry, enriching his practical insights. He has published over 18 scientific papers and is the lead author of a technical book. He actively engages with the scientific community through editorial roles and collaborations. Dr. Wang is dedicated to advancing green, safe, and high-performance battery technologies for a sustainable energy future.

Professional Profile :         

Google Scholar

Summary of Suitability for Award:

Dr. Chenxu Wang is an exceptional candidate for the Green Chemistry Award due to his innovative integration of biological and natural materials—particularly silk fibroin proteins—into the design of advanced battery components. His work directly aligns with the principles of green chemistry. Dr. Wang has demonstrated that green materials can match or surpass traditional materials in performance. His contributions include the development of protein-based solid electrolytes, eco-friendly binders, and non-toxic separators, which not only advance battery safety and efficiency but also minimize environmental impact. Dr. Chenxu Wang’s pioneering work in applying natural biomolecules to battery technology presents a paradigm shift toward eco-conscious energy storage solutions. His holistic approach—spanning green material synthesis, automation, and recycling—makes him an ideal recipient of the “Green Chemistry Award”. His research not only addresses key environmental challenges but also offers scalable solutions for the clean energy transition.

🎓Education:

Dr. Chenxu Wang earned his Ph.D. in Materials Science and Engineering from Washington State University (WSU) in 2023, where he conducted advanced battery research under Dr. Weihong Zhong. His doctoral work focused on sustainable energy storage systems, particularly lithium-metal and lithium-sulfur batteries. During his time at WSU, he received prestigious awards recognizing both academic excellence and research contributions. Prior to his Ph.D., Dr. Wang obtained his undergraduate and possibly a master’s degree (details unspecified) in fields related to chemistry or materials science, laying the groundwork for his later specialization in electrochemical systems. His academic training has been marked by a strong emphasis on interdisciplinary problem-solving, including materials synthesis, electrochemical characterization, and green chemistry applications. Throughout his education, Dr. Wang developed a strong technical foundation and research mindset that continue to fuel his contributions to battery innovation and electrochemical energy storage.

🏢Work Experience:

Dr. Chenxu Wang is currently serving as a Research Associate at the BEACONS Center, University of Texas at Dallas, where he contributes to groundbreaking projects in next-generation battery technologies. Since 2016, he has worked extensively on battery research, accumulating a unique blend of academic and industrial experience. He previously worked in the battery manufacturing industry, where he gained hands-on experience in the development and scaling of energy storage materials and systems. During his Ph.D. at WSU, he managed several interdisciplinary research projects on solid-state electrolytes and sustainable battery materials. Dr. Wang is involved in both laboratory experimentation and theoretical modeling. In addition to his research roles, he is active in the scientific publishing ecosystem, serving on the Youth Editorial Board of Exploration and as a Guest Editor for Batteries. His contributions span project leadership, material innovation, and research communication within the energy storage field.

🏅Awards: 

Dr. Chenxu Wang has been recognized with multiple prestigious awards that highlight his exceptional academic and research performance. In 2023, he received the Outstanding Dissertation Award and the Outstanding Research Assistant Award from Washington State University, acknowledging the novelty and impact of his Ph.D. work in the field of electrochemical energy storage. These accolades are a testament to his contributions toward addressing real-world energy challenges through scientific innovation. Dr. Wang’s leadership and editorial responsibilities also reflect his growing recognition in the global research community. He currently serves as a Guest Editor for the journal Batteries and is a Youth Editorial Board Member for the journal Exploration. His research excellence and dedication to sustainable energy have also led to collaborative opportunities and growing citations (over 253 citations) across reputable journals. These honors reflect Dr. Wang’s commitment to advancing green chemistry and sustainable battery technology.

🔬Research Focus:

Dr. Chenxu Wang’s research is centered on electrochemical energy storage systems, with a strong emphasis on green chemistry, sustainability, and advanced battery materials. His innovative work involves integrating natural proteins such as silk fibroin into solid-state battery components, which significantly improve safety, ionic conductivity, and performance. He has developed protein-based solid electrolytes, binders, and separators, targeting the challenges of dendrite formation and the polysulfide shuttle effect in lithium-metal and lithium-sulfur batteries. His research also explores automated synthesis, material characterization, and battery recycling, aiming to create scalable, eco-friendly solutions for energy storage. Dr. Wang’s unique blend of academic research and industry exposure allows him to bridge theory and practice, contributing meaningfully to real-world battery innovations. His projects on high-energy-density lithium/sodium-ion batteries and advanced liquid electrolytes further reflect his comprehensive approach to solving multi-faceted challenges in next-generation energy storage.

Publication Top Notes:

A water-soluble binary conductive binder for Si anode lithium ion battery
Citations: 57

Natural protein as novel additive of a commercial electrolyte for Long-Cycling lithium metal batteries
Citations: 30

Protein-modified SEI formation and evolution in Li metal batteries
Citations: 29

A protein-enabled protective film with functions of self-adapting and anion-anchoring for stabilizing lithium-metal batteries
Citations: 26

Synthesis of β-FeOOH nanorods adhered to pine-biomass carbon as a low-cost anode material for Li-ion batteries
Citations: 20

A bioinspired coating for stabilizing Li metal batteries
Citations: 18

Promising sustainable technology for energy storage devices: Natural protein-derived active materials
Citations: 15

Incorporating SnO2 nanodots into wood flour-derived hierarchically porous carbon as low-cost anodes for superior lithium storage
Citations: 12

Interface-tailored forces fluffing protein fiber membranes for high-performance filtration
Citations: 10

Highly dispersed SnO2 nanoparticles confined on xylem fiber-derived carbon frameworks as anodes for lithium-ion batteries
Citations: 7

An amino acid-enabled separator for effective stabilization of Li anodes
Citations: 6

Effects of Anions and Protein Structures on Protein‐Based Solid Electrolytes
Citations: 6