Monika Shrivastav | Schottkey devices | Best Researcher Award

Published on by Applied Scientist

Best Researcher Award

Monika Shrivastav

Universidad de Santiago de Chile

Monika Shrivastav
Affiliation Universidad de Santiago de Chile
Country India
Scopus ID 57972013800
Documents 24
Citations 187
h-index 9
Subject Area Schottkey devices
Event Applied Scientist Awards
ORCID 0000-0001-7634-2021

Monika Shrivastav is a researcher whose scholarly activities demonstrate sustained scientific quality, measurable research impact, and meaningful contributions to semiconductor materials and Schottky device technologies. Her research has contributed to the advancement of electronic materials, characterization methods, and device performance. Through her published work, citation record, and international research visibility, she has established a profile that reflects continued academic engagement and consistent research productivity. These achievements align with the principles recognized by the Best Researcher Award, which honors researchers who demonstrate excellence, innovation, and lasting contributions within their respective disciplines.[1][2]

Abstract

Monika Shrivastav has developed an academic portfolio focused on semiconductor physics and Schottky device research. Her work emphasizes material characterization, fabrication techniques, electrical behavior, and device optimization for electronic applications. Through peer-reviewed publications, citation performance, and continued participation in international research activities, she has contributed to the advancement of semiconductor science and engineering.[1][3]

Keywords

Schottky Devices, Semiconductor Materials, Electronic Devices, Thin Films, Device Characterization, Materials Science, Semiconductor Engineering, Electrical Properties, Research Excellence, Best Researcher Award.

Introduction

Research involving semiconductor materials and Schottky devices plays a significant role in modern electronics, sensing technologies, and energy-efficient systems. Advances in fabrication methods and material characterization contribute to improved device reliability, switching performance, and electronic functionality. Monika Shrivastav’s research activities align with these objectives by examining material behavior and electronic interfaces relevant to semiconductor device development.[3]

Research Profile

The research profile demonstrates consistent scholarly productivity with publications indexed in international databases. According to available citation metrics, the profile includes 24 indexed publications, 187 citations, and an h-index of 9, reflecting measurable academic influence within semiconductor and materials research.[1]

  • Semiconductor materials research
  • Schottky device characterization
  • Electronic material interfaces
  • Thin-film device investigations
  • Materials and electronic engineering applications

Research Contributions

The published research addresses electrical transport mechanisms, interface characteristics, semiconductor fabrication, and material optimization. These investigations contribute to the understanding of electronic device performance and support the continued development of semiconductor technologies for scientific and industrial applications.[2][4]

Publications

The research record consists of peer-reviewed journal publications indexed by international bibliographic databases. The publications collectively examine semiconductor devices, Schottky contacts, thin-film technologies, and electronic materials characterization while supporting reproducible scientific methodologies.[1][5]

Research Impact

Citation indicators and publication metrics demonstrate that the research has received scholarly attention within the semiconductor research community. Continued citation activity indicates that the published findings contribute to ongoing investigations involving device engineering, electronic materials, and semiconductor physics.[1]

Award Suitability

Based on documented publication output, citation performance, international research visibility, and contributions to semiconductor science, Monika Shrivastav demonstrates characteristics commonly considered during evaluations for academic recognition. The research profile reflects sustained scholarly engagement, measurable scientific productivity, and continued contributions within the field of Schottky device research.[1][2]

Conclusion

Monika Shrivastav’s scholarly record reflects continued participation in semiconductor and electronic materials research. Through peer-reviewed publications, citation impact, and investigations focused on Schottky devices, the researcher has contributed to scientific understanding within the discipline. These achievements align with the principles of the Best Researcher Award, recognizing sustained academic excellence, research quality, and measurable scientific contribution.[1]

References

  1. Elsevier. (n.d.). Scopus author details: Monika Shrivastav, Author ID 57972013800. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=57972013800
  2. M Shrivastav., H Galriya., et al. (2025). Enhancement in ORR Performance by Compositing Ni-Decorated MoS2 with rGO for Alkaline Fuel Cells.
    https://link.springer.com/article/10.1007/s12678-024-00921-7
  3. C Kumar., M Shrivastav., et al. (2025). Growth dynamics and surface scaling of air-oxidized NiO thin films from sputtered Ni.
    https://www.sciencedirect.com/science/article/pii/S0042207X25010292
  4. C Kumar., M Shrivastav., et al. (2026). Spatial complexity and local slope controls morphology-wettability coupling in plasma-engineered AgO thin films.
    https://www.sciencedirect.com/science/article/pii/S0272884226004670
  5. C Kumar., M Shrivastav., et al. (2025). Fractal surface roughness effects on CdS/Si Schottky-diodes.
    https://www.sciencedirect.com/science/article/pii/S0167577X2501328X

Mengqiang Li | Material Science | Best Applied Science Award

Published on by Applied Scientist

Mr. Mengqiang Li | Material Science | Best Applied Science Award

Mengqiang Li from Chungnam National University | South Korea

Li Meng Qiang is a dedicated researcher currently pursuing a Ph.D. at Chungnam National University, specializing in the development of advanced organic optoelectronic materials and perovskite solar cells. His work bridges fundamental material design with practical device applications, aiming to enhance efficiency, stability, and commercialization potential in next-generation photovoltaic and optoelectronic devices. Over the course of his academic journey, Li has demonstrated exceptional productivity, contributing to more than 12 SCI-indexed publications in highly regarded journals such as Advanced Functional Materials, Advanced Science, Materials Today Energy, and ACS Energy Letters. His research interests extend into π-conjugated molecular design, organic photodetectors, and interface engineering strategies that optimize device performance. With an h-index of 5, total citations of 57, and multiple collaborative projects involving leading institutions in Korea and China, Li has established himself as a promising scientist in his field. His contributions include the development of ionic liquid additives, nonfullerene acceptors, and novel quinone-terminal organic semiconductors, which have been recognized with honors such as the BK21 Outstanding Researcher Award and the Korean Industrialization Society Outstanding Presentation Award. Li’s research is fueled by a strong commitment to innovation, scientific rigor, and the translation of laboratory breakthroughs into viable industrial solutions.

Professional Profile

Scopus | ORCID | Google Scholar

Education

Li Meng Qiang’s academic path reflects a deep commitment to materials science and device engineering. He is currently enrolled in the Ph.D. program at Chungnam National University, Republic of Korea, where his research focuses on organic optoelectronic materials and perovskite solar cells. This doctoral training has provided him with advanced expertise in molecular design, synthesis, thin-film fabrication, and device characterization. His work integrates both experimental and theoretical approaches, ensuring a well-rounded understanding of how material properties translate into device performance. Prior to his doctoral studies, Li acquired a strong foundation in chemistry, materials science, and electronic engineering through rigorous undergraduate and postgraduate coursework, where he developed early interests in π-conjugated systems and their optoelectronic applications. His educational experience has been enriched by collaborations with interdisciplinary research teams, which have exposed him to global research standards and cross-cultural scientific exchange. Through seminars, workshops, and international conferences, Li has continuously expanded his academic horizons, keeping pace with the rapidly evolving landscape of organic electronics. His education not only equipped him with technical knowledge but also fostered a mindset oriented toward problem-solving, innovation, and the practical application of scientific discoveries.

Professional Experience

Although currently engaged in full-time doctoral research, Li Meng Qiang has accumulated valuable professional experience through his active involvement in high-impact research projects and collaborations. At Chungnam National University, he has led and contributed to multiple funded projects focusing on the synthesis and application of organic semiconductors, interface engineering for perovskite solar cells, and the development of near-infrared organic photodetectors. His work is characterized by a hands-on approach, from material synthesis to device fabrication and performance optimization. Li’s professional contributions extend beyond laboratory work; he has authored and co-authored over 12 SCI-indexed journal articles, often serving as a key contributor in experimental design, data analysis, and manuscript preparation. His international collaborations with research groups in Korea and China have further broadened his professional scope, allowing him to work on projects that combine material innovation with scalable manufacturing processes. Li has also been actively involved in presenting his research at international conferences, where he has earned recognition for his clarity in communication and the novelty of his findings. Through these experiences, he has developed a professional identity as a skilled experimentalist, an effective communicator, and a collaborative team member dedicated to advancing optoelectronic technologies.

Research Interest

Li Meng Qiang’s research interests lie at the intersection of materials chemistry, nanotechnology, and device engineering, with a particular focus on organic optoelectronic materials and perovskite solar cells. His scientific curiosity is driven by the need to improve the efficiency, stability, and scalability of next-generation energy conversion devices. Central to his work is the design and synthesis of π-conjugated molecules, nonfullerene acceptors, and novel electron acceptors with unique quinone-terminal groups for enhanced optoelectronic performance. Li is also deeply engaged in exploring ionic liquid additives and surface passivation strategies to mitigate defects, suppress nonradiative recombination, and enhance device operational stability. His research extends into organic photodetectors, especially those capable of near-infrared detection, which hold significant promise for applications in sensing, imaging, and communication. By combining molecular engineering with advanced device architecture, Li seeks to develop materials that can be seamlessly integrated into high-performance, cost-effective, and environmentally sustainable electronic systems. His long-term vision is to bridge the gap between laboratory-scale innovations and industrial-scale applications, enabling the commercialization of high-efficiency solar cells and multifunctional optoelectronic devices that contribute to global clean energy solutions.

Research Skills

Li Meng Qiang possesses a diverse set of research skills spanning molecular design, material synthesis, device fabrication, and performance characterization. In synthetic chemistry, he is proficient in designing and producing π-conjugated molecules, nonfullerene acceptors, and organic semiconductors with targeted optoelectronic properties. His expertise in thin-film deposition techniques, such as spin-coating and vacuum evaporation, enables him to fabricate high-quality active layers for perovskite and organic solar cells. He is adept at employing interface engineering methods, including surface passivation and additive incorporation, to optimize device efficiency and stability. Li is also skilled in the characterization of materials and devices using UV-vis spectroscopy, photoluminescence spectroscopy, X-ray diffraction (XRD), scanning electron microscopy (SEM), and current-voltage (J-V) measurements. His analytical skills allow him to interpret complex datasets and derive meaningful correlations between molecular structure, film morphology, and device performance. Additionally, Li has experience with collaborative research management, manuscript preparation, and peer-reviewed publishing. His strong presentation skills, honed through international conferences, enable him to effectively communicate technical concepts to diverse audiences. Overall, his research toolkit is both comprehensive and adaptable, supporting his goal of advancing the frontiers of organic optoelectronic materials and device engineering.

Awards and Honors

Li Meng Qiang’s research excellence has been recognized through several prestigious awards and honors, reflecting both the quality and impact of his scientific contributions. Among his notable accolades is the BK21 Outstanding Researcher Award, which honors outstanding achievements in graduate-level research and innovation. This award underscores his commitment to advancing knowledge in organic optoelectronics and his ability to deliver high-quality, impactful scientific work. He also received the Korean Industrialization Society Outstanding Presentation Award, acknowledging his skill in effectively communicating complex research findings and their industrial relevance. These honors are complemented by his strong publication record in leading journals such as Advanced Functional Materials and ACS Energy Letters. Beyond formal awards, his work has garnered attention through invitations to present at international conferences and participate in collaborative projects with top research groups in Korea and China. His recognition is not only a testament to his technical expertise but also to his dedication, perseverance, and ability to translate research into meaningful technological advancements. These achievements highlight his potential as a future leader in the field of optoelectronic materials and sustainable energy technologies.

Publications Top Notes

Title: Passivating detrimental grain boundaries in perovskite films with strongly interacting polymer for achieving high-efficiency and stable perovskite solar cells
Year: 2023
Citations: 25

Title: Recent progress in semitransparent organic solar cells: photoabsorbent materials and design strategies
Year: 2024
Citations: 10

Title: Enhanced chemical interaction between ionic liquid and halide perovskite to improve performance of perovskite solar cells
Year: 2024
Citations: 7

Title: Interlayer molecular doping to enhance efficiency in tin perovskite solar cells
Year: 2024
Citations: 5

Title: Critical role of the end-group acceptor in enhancing the efficiency of indacenodithiophene-benzothiadiazole-linked nonfullerene organic solar cells through morphology optimization
Year: 2024
Citations: 5

Conclusion

In summary, Li Meng Qiang is an emerging scientist whose work in organic optoelectronic materials and perovskite solar cells stands at the forefront of clean energy research. Through rigorous doctoral training at Chungnam National University, he has developed expertise that spans the entire spectrum from molecular design to device fabrication and performance optimization. His scientific output—comprising more than 12 SCI-indexed publications, an h-index of 5, and over 57 citations—reflects a consistent commitment to quality, innovation, and impact. His contributions to π-bridge engineering, ionic liquid additives, and novel electron acceptors have significantly advanced the understanding and performance of optoelectronic devices. Honors such as the BK21 Outstanding Researcher Award further validate his potential and achievements. Looking forward, Li aims to continue bridging academic research with industrial applications, focusing on scalable, high-performance, and environmentally sustainable solutions. With a foundation built on technical excellence, collaborative engagement, and a forward-looking research vision, he is poised to make substantial contributions to global energy challenges and the future of optoelectronic technology.