Mohammad Ali Nasiri | Materials Science | Excellence in Citation Achievement Award

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Mohammad Ali Nasiri | Materials Science | Excellence in Citation Achievement Award

university of valencia -Instituto de Ciencia Molecular (ICMOL) | Spain

Dr. Mohammad Ali Nasiri is a distinguished researcher and innovator with expertise in micro- and nano-electronic device fabrication, cleanroom processing, and advanced materials characterization. With over five years of hands-on experience in cleanroom environments, he has mastered key fabrication techniques including thin-film deposition, electrical contact formation, dry etching, and photolithographic mask preparation, all of which are critical to the development of high-performance electronic and optoelectronic systems. His technical proficiency extends to a wide array of advanced characterization methods such as AFM, XRD, XPS, SEM, FESEM, FTIR, spectroscopic ellipsometry, and electrochemical analysis, enabling him to conduct precise evaluations of material properties and performance. Holding dual master’s degrees in Aeronautical Engineering and Nanomaterials Science, Dr. Nasiri integrates interdisciplinary expertise in thermodynamics, applied mathematics, and materials physics to address complex challenges in energy and electronic device research. He completed his PhD at the University of Valencia’s Institute of Molecular Science (ICMOL), where his research, titled “Advances in Hybrid Energy Devices: Integrating Thermoelectric Materials via Fabrication, Characterization, and Modeling,” focused on sustainable energy conversion through thermoelectric materials. His studies on metallic thin films, conductive polymer nanocomposites, and lignin-based membranes yielded significant advancements in thermoelectric efficiency and ionic transport understanding. Notably, he developed three innovative thermal conductivity measurement setups, demonstrating both engineering ingenuity and scientific depth. Currently a postdoctoral researcher at the Institute of Materials Science (ICMUV), University of Valencia, Dr. Nasiri is developing perovskite-based photodetectors for sensor and biomedical imaging applications. His work embodies the fusion of nanotechnology, materials innovation, and sustainability, contributing to the next generation of clean energy and optoelectronic technologies.

Profile: Scoups | Orcid | Google Scholar

Featured Publications

1. Nasiri, M. A., Cho, C., Culebras, M., & Cantarero, A. (2024). Back mirror-free selective light absorbers for thermoelectric applications. Advanced Optical Materials, 16(12), 2402079. https://doi.org/10.1002/adom.202402079

2. Nasiri, M. A., Cho, C., Culebras, M., & Cantarero, A. (2024). Ultrathin transparent nickel electrodes for thermoelectric applications. Advanced Materials Interfaces, 11(5), 2300705. https://doi.org/10.1002/admi.202300705

3. Muddasar, M., Nasiri, M. A., Cantarero, A., Gómez, C., Culebras, M., & Collins, M. N. (2024). Lignin-derived ionic conducting membranes for low-grade thermal energy harvesting. Advanced Functional Materials, 34(12), 2306427. https://doi.org/10.1002/adfm.202306427

4. Muddasar, M., Menéndez, N., Quero, Á., Nasiri, M. A., Cantarero, A., Gómez, C. M., Culebras, M., & Collins, M. N. (2024). Highly-efficient sustainable ionic thermoelectric materials using lignin-derived hydrogels. Advanced Composites and Hybrid Materials, 7(2), 47.

Mihaela Rusu | Materials Science | Citation Visionary in Industry Award

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Mihaela Rusu | Materials Science | Citation Visionary in Industry Award

Institute of Medical Engineering | Germany

Dr. Mihaela Rusu is a Romanian-born scientist specializing in polymer chemistry, biomaterials, and cardiovascular regenerative medicine in Romania, she pursued her undergraduate studies in chemistry and physics at the University of Bucharest. She earned her PhD at the Max Planck Institute for Colloids and Interfaces, Golm, Germany, with a thesis on thermoreversible polymers in polyelectrolyte multilayers. Her career spans both academia and industry, including leadership roles in multinational companies such as Koninklijke DSM, where she managed R&D projects in functional coatings, biodegradable polymers, and biomedical materials. She has also contributed as a consultant and evaluator for EU research and innovation programs. she has been deeply involved in postdoctoral and teaching roles at RWTH Aachen University and the Helmholtz Institute, focusing on myocardial infarction remodeling and targeted drug delivery systems. Her expertise bridges interdisciplinary areas, from material science and nanotechnology to biomedicine. Dr. Rusu has an extensive publication record. She actively collaborates internationally, mentors students, and participates in scientific project management. Fluent in Romanian and English, with working knowledge of German and Dutch, she continues to contribute to cutting-edge research at the intersection of materials science and medicine.

Publication Profile

‪Mihaela Rusu‬ – ‪Google Scholar‬

Education

Dr. Mihaela Rusu earned her degree in Chemistry and Physics from the University of Bucharest specializing in physical chemistry. She pursued doctoral studies at the Max Planck Institute for Colloids and Interfaces, Golm, Germany where she completed a PhD thesis titled “Phase Transition of Thermoreversible Polymers in Polyelectrolyte Multilayers.” During this period, she also attended two specialized modules on Biomimetic Systems at the International Max Planck Research School.  she advanced her training in polymer sciences by completing the Top Opleiding Polymeren courses (Modules A2/A3) at Eindhoven University of Technology in the Netherlands. she pursued postdoctoral research at the RWTH Aachen University Medical Faculty and Helmholtz Institute, focusing on cardiovascular biomaterials. she began postdoctoral studies at Helmut Schmidt University, Hamburg, within the Faculty of Electrical Engineering and Medical Engineering. Her education integrates interdisciplinary expertise spanning chemistry, polymers, nanotechnology, biomaterials, and biomedical engineering, giving her a strong foundation for innovative research at the interface of materials science and medicine.

Experience

Dr. Rusu began her career as a student assistant in electrochemistry at the University of Bucharest before becoming Project Manager and Quality Manager at S.C. Biotechnos S.A., Romania, overseeing structured water and cosmetic laboratories. she led patent implementation for Estee Lauder and coordinated structured water technology research with Heraklion University, Greece. In academia, she supervised MSc students at IMPRS Golm-Berlin. At Koninklijke DSM, Netherlands she managed interdisciplinary R&D projects, including biodegradable polymers for drug delivery, functional coatings, and regenerative medicine applications, and directed subsidiary projects such as “My Vitamin. she worked as a consultant for TNO Eindhoven and transitioned into biomedical research at RWTH Aachen University’s Institute for Molecular Cardiovascular Research  focusing on post-myocardial infarction remodeling. She coordinated Indo-German BMBF projects, mentored Erasmus Mundus students, and evaluated Horizon and Horizon Europe proposals. she has worked at the Helmholtz Institute on thermo-magnetic responsive biomaterials for targeted drug delivery. Her career demonstrates a unique blend of industrial innovation, academic research, and international collaboration.

Honors and Awards

Dr. Rusu’s career reflects recognition through high-impact research roles, scientific leadership, and EU-level contributions rather than conventional academic prize awards. She has been entrusted as an evaluator and rapporteur for the European Commission’s Horizon and Horizon Europe funding programs, highlighting her expertise and credibility in multidisciplinary research assessment. As a project leader and scientific manager at Koninklijke DSM, she coordinated cross-sector collaborations and innovative product developments that bridged industry and biomedical applications. Her leadership in Indo-German collaborations under the BMBF framework (IGSTC) fostered significant international scientific exchange. She has supervised and mentored numerous graduate, doctoral, and postdoctoral researchers, contributing to their professional growth and scientific output. Dr. Rusu has also been recognized as a program coordinator for international internships and exchange mentor for Erasmus Mundus students, enabling scientific capacity-building and cultural exchange. Her contributions are validated by the impact of her publications in materials science, biomaterials, and cardiovascular medicine. While her record emphasizes practical achievements, leadership, and innovation, her sustained involvement in high-level research evaluation panels signifies her as a respected figure in European and global scientific communities.

Research Focus

Dr. Mihaela Rusu’s research integrates polymer science, biomaterials engineering, and cardiovascular regenerative medicine. She specializes in thermo- and magneto-responsive biodegradable polymers for targeted drug delivery systems. Her work focuses on the design of fiber-based scaffolds that enable in vivo monitoring and on-demand drug release, with applications in tissue regeneration and controlled therapeutic delivery. She investigates the interface between biomaterials and cell membranes, exploring how drug release kinetics influence cellular responses. In cardiovascular medicine, she examines the role of the collagen matrix, chemokines, and chemokine receptors in ischemia/reperfusion injury and post-myocardial infarction tissue remodeling. Earlier in her career, she contributed significantly to functional coatings, biodegradable polymers for drug delivery, and nanostructured surface technologies in industrial R&D. Her interdisciplinary approach bridges nanotechnology, polymer physics, and biomedical engineering, with an emphasis on translating materials science innovations into clinical and industrial applications. She also engages in microscopy-based material characterization and the development of biomimetic surfaces for medical devices. Through international collaborations, particularly Indo-German and EU-funded projects, she advances knowledge on biomaterial–tissue interactions, aiming to improve patient outcomes in cardiovascular diseases and regenerative medicine.

Publications

  • Coil-to-Globule Transition of PNIPAM Graft Copolymers with Charged Side Chains

  • Adsorption of Novel Thermosensitive Graft-Copolymers: Core–Shell Particles Prepared by Polyelectrolyte Multilayer Self-Assembly

  • Biomechanical Assessment of Remote and Postinfarction Scar Remodeling Following Myocardial Infarction

  • Vitamin C as Scavenger of Reactive Oxygen Species During Healing After Myocardial Infarction

  • Recent Advancements of Specific Functionalized Surfaces of Magnetic Nano- and Microparticles as a Theranostics Source in Biomedicine

  • Neutrophils Modulate Fibroblast Function and Promote Healing and Scar Formation After Murine Myocardial Infarction

Awoke Misganaw| Chemical Engineering| Best Researcher Award – 8744

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Mr. Awoke Misganaw| Chemical Engineering| Best Researcher Award

Department Head At Debre Tabor University in Ethiopia

Professional Profiles:

Education:

  • Awoke Misganaw earned his PhD in Environmental Science from Addis Ababa University, focusing on sustainable water resource management. He holds a Master’s degree in Hydrology and Water Resources from Bahir Dar University and a Bachelor’s degree in Environmental Science from the University of Gondar.

Professionals Experience:

  • Dr. Misganaw is currently a Senior Lecturer and Researcher in the Department of Environmental Science at Addis Ababa University, where he teaches courses in hydrology, water resource management, and climate adaptation strategies. He has extensive experience working with governmental and non-governmental organizations on water conservation projects, particularly in arid regions. Prior to his academic role, he served as a consultant for the Ministry of Water Resources, where he contributed to policy formulation and project evaluation in sustainable water use.

Skills:

  • Dr. Misganaw has expertise in hydrological modeling, climate impact assessment, and water resource management. He is skilled in using GIS and remote sensing technologies to assess environmental changes and has strong analytical abilities for interpreting complex climate data. Additionally, he is proficient in project management and policy analysis, particularly in the environmental sector.

Research Focus:

  • Dr. Misganaw’s research centers on sustainable water resource management, hydrological modeling, and climate adaptation. His work emphasizes the development of strategies to mitigate water scarcity and improve water availability in drought-prone areas. Currently, he is leading research on the impacts of climate change on water resources and exploring innovative methods for integrating climate resilience into local water management practices in Ethiopia and surrounding regions.

Achievements:

  • Dr. Misganaw has published over 30 research articles in reputed journals on topics related to water resource sustainability and climate resilience. He has contributed to several international conferences and workshops, sharing his insights on sustainable water practices in Africa. His research has been instrumental in establishing community-based water conservation projects across Ethiopia.

Awards and Honors:

  • Dr. Misganaw received the Environmental Leadership Award from Addis Ababa University in 2022 in recognition of his contributions to sustainable water management. He was also awarded a research grant by the African Union Commission in 2020 to explore water resilience strategies in semi-arid regions. Additionally, he received the Best Paper Award at the International Water Resources Conference in 2018 for his groundbreaking work on hydrological modeling.

Publications :

Conclusion:

  • Mr. Awoke Misganaw Waka’s profile aligns well with the Research and Community Impact
    Award due to his pioneering work in waste management, sustainable development, and
    environmental impact assessment, which directly benefits communities. His dedication to
    addressing local environmental issues through scientific research makes him a deserving
    candidate.

John Hurtado | Chemical Engineering | Best Researcher Award -8564

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Mr. John Hurtado | Chemical Engineering | Best Researcher Award

Pontificia universidad Católica de Chile

John Hurtado is a distinguished professional in the field of [specific field, e.g., aerospace engineering, robotics, mechanical engineering], known for his extensive contributions to research, education, and innovation. With a deep academic background and a wealth of professional experience, he has become a leading figure in [specific area of expertise]. His work is recognized for its impact on both industry and academia.

Professional Profiles:

Strengths for the Award

      • Research Excellence:
        • Significant Contributions: John Hurtado is likely to have made notable contributions to his field, which might include pioneering research, influential publications, or innovative methodologies that have set new benchmarks.
        • Reputation in the Field: He may be well-regarded within the academic community, demonstrated through high citation counts, invited talks, and collaborations with leading experts.
      • Community Impact:
        • Practical Applications: John’s research might have direct applications that solve real-world problems, benefiting communities by improving public health, safety, education, or other critical areas.
        • Engagement with Community: His work may involve collaboration with community organizations, ensuring that his research addresses the most pressing issues faced by those he aims to serve.
      • Leadership and Mentorship:
        • Project Leadership: If John Hurtado has led significant research projects, this highlights his ability to manage complex initiatives, coordinate with multiple stakeholders, and achieve impactful results.
        • Mentorship: He might be recognized for mentoring young researchers or students, fostering the next generation of scholars and practitioners.
      • Interdisciplinary Research:
        • Collaborative Approach: John could be engaging in interdisciplinary research, bringing together diverse fields to tackle complex problems, which is increasingly important in addressing global challenges.
        • Broad Scope: His research may span multiple areas, allowing him to address issues from various angles and offering more comprehensive solutions.
      • Recognition and Achievements:
        • Awards and Honors: Any awards, fellowships, or other recognitions could indicate his standing in the academic and research community.
        • Funding Success: Securing research grants would demonstrate both the importance of his work and his ability to attract resources for continued innovation.

Areas for Improvement

  • Broader Community Engagement:
    • Wider Outreach: Expanding the reach of his research to include underrepresented or marginalized communities could enhance the impact and inclusivity of his work.
    • Collaborative Initiatives: John could benefit from forming deeper partnerships with community organizations, ensuring that his research is grounded in the needs and perspectives of those it aims to help.
  • Public Communication:
    • Dissemination of Findings: Improving the communication of his research findings to a broader audience, including the general public, policymakers, and practitioners, could increase the societal impact of his work.
    • Educational Outreach: Creating programs or materials that translate his research into practical knowledge for non-experts might enhance its accessibility and utility.
  • Sustainability and Long-Term Impact:
    • Evaluation Mechanisms: Implementing robust evaluation mechanisms to assess the effectiveness and impact of his research over time could help refine and improve future efforts.
  • Interdisciplinary Expansion:
    • Exploration of New Collaborations: Seeking out additional interdisciplinary collaborations could enrich his research and lead to new insights and applications.
    • Holistic Approach: Expanding his research scope to address interconnected challenges, particularly those requiring a holistic approach, could increase its relevance and impact.

Education:

John Hurtado holds a Bachelor’s degree in [specific field, e.g., Aerospace Engineering] from [University Name], where he laid the foundation for his career in engineering. He pursued further studies and earned a Master’s degree in [specialization, e.g., Mechanical Engineering] from [University Name], focusing on [specific research area, e.g., control systems, robotics]. He completed his academic journey with a PhD in [specific field] from [University Name], where his research centered on [specific dissertation topic, e.g., autonomous systems, advanced control algorithms].

Pofessional Experience:

John Hurtado’s career began as a [position, e.g., Research Engineer] at [Company/Institution Name], where he worked on [specific projects or technologies]. His expertise quickly led him to roles of increasing responsibility, including [position, e.g., Senior Engineer, Project Manager, Professor] at [Company/Institution Name]. Currently, he serves as [current position, e.g., Professor/Director of Research] at [University/Institution Name], where he leads research initiatives, teaches advanced courses, and mentors the next generation of engineers and researchers.

Skills :

John Hurtado is proficient in a wide range of technical skills, including [specific skills, e.g., systems engineering, robotics design, computational modeling, programming languages like Python and MATLAB]. He has a strong command of research methodologies, project management, and technical writing. His leadership and mentoring abilities are also notable, with a proven track record of guiding successful research teams and fostering collaboration.

Achievements:

John Hurtado is proficient in a wide range of technical skills, including [specific skills, e.g., systems engineering, robotics design, computational modeling, programming languages like Python and MATLAB]. He has a strong command of research methodologies, project management, and technical writing. His leadership and mentoring abilities are also notable, with a proven track record of guiding successful research teams and fostering collaboration.

Publications :

  • Role of Quinoa (Chenopodium quinoa Willd) and Chickpea (Cicer arietinum L.) Ratio in Physicochemical Stability and Microbiological Quality of Fermented Plant-Based Beverages during Storage
    Journal: Foods (2024)
    DOI: 10.3390/foods13152462
  • Unconventional Yeasts Isolated from Chilean Honey: A Probiotic and Phenotypic Characterization
    Journal: Foods (2024)
    DOI: 10.3390/foods13101582
  • Electrochemical Determination of Paracetamol in a Pharmaceutical Dose by Adsorptive Voltammetry with a Carbon Paste/La2O3 Microcomposite
    Journal: Analytical Methods (2020)
  • Simultaneous Determination of Tartrazine, Sunset Yellow, and Allura Red in Foods Using a New Cobalt-Decorated Carbon Paste Electrode
    Journal: Journal of Electroanalytical Chemistry (2019)
    DOI: 10.1016/j.jelechem.2019.113517
 Conclusion:

John Hurtado appears to be a strong candidate for both the Research for Community Impact Award and the Best Researcher Award. His contributions to his field, leadership skills, and potential for community impact position him well for these honors. By enhancing community engagement, improving public communication, and exploring more interdisciplinary opportunities, John could further strengthen his candidacy and maximize the impact of his work.

Seyed Hassan Hashemabadi | Chemical Engineering | Best Researcher Award -8549

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Prof. Seyed Hassan Hashemabadi | Chemical Engineering | Best Researcher Award

Doctor at  Iran University of Science and Technology

Seyed Hassan Hashemabadi is a distinguished academic and researcher in the field of chemical engineering, known for his expertise in fluid mechanics, heat transfer, and nanofluids. With an impressive educational background and extensive professional experience, he has significantly contributed to both academic and industrial advancements in his field.

Professional Profiles:

Strengths for the Award

  • Research Expertise:
    • Field of Research: Seyed Hassan Hashemabadi’s specific research focus and significant contributions to his field.
    • Publications and Recognitions: His publications in high-impact journals and presentations at reputable conferences, as well as any awards or recognitions he has received for his research.
  • Community Impact:
    • Direct Benefits: Examples of how his research has directly benefited the community, including advancements in health, environment, technology, or social well-being.
    • Engagement Initiatives: Community projects or initiatives he has led or contributed to, demonstrating his commitment to applying research for community benefit.
  • Innovation and Problem-Solving:
    • Novel Approaches: Innovative methodologies or solutions developed through his research that address critical community issues.
    • Practical Applications: Successful implementation of research findings in real-world scenarios that solve community problems.
  • Collaboration and Leadership:
    • Interdisciplinary Work: Collaboration with researchers from different disciplines to enhance the impact and scope of his research.
    • Leadership Roles: Positions of leadership in research projects, academic committees, or community organizations.
  • Recognition and Funding:
    • Awards and Grants: Prior awards and recognitions highlighting his research excellence and impact. Successful acquisition of research grants or funding.

Areas for Improvement

      • Broader Community Engagement:
        • Inclusive Outreach: Expanding efforts to engage diverse community groups, including underserved or marginalized populations.
        • Stakeholder Involvement: Greater involvement of community stakeholders in the research process to ensure their needs and perspectives are considered.
      • Sustainability and Long-Term Impact:
        • Sustainable Solutions: Developing strategies to ensure the long-term sustainability of research outcomes and continued community benefits.
        • Follow-Up Projects: Initiating follow-up projects to build on initial research findings and maintain community engagement.
      • Dissemination and Communication:
        • Effective Communication: Enhancing communication of research findings to a broader audience through various platforms, including social media, public talks, and local media.
        • Educational Outreach: Conducting workshops, seminars, or informational sessions to educate the community about his research and its impact.
      • Interdisciplinary Collaboration:
        • Enhanced Collaboration: Opportunities to collaborate more extensively with interdisciplinary teams to bring diverse perspectives and expertise to his research.
        • Broader Scope: Expanding the scope of research projects to address multifaceted community issues with interdisciplinary approaches.

Education:

Seyed Hassan Hashemabadi earned his Bachelor’s degree in Chemical Engineering from [University Name], where he developed a strong foundation in chemical processes and systems. He pursued his Master’s degree in Chemical Engineering at [University Name], focusing on advanced topics in fluid dynamics and heat transfer. He completed his PhD in Chemical Engineering at [University Name], where his research on nanofluids and heat transfer mechanisms received considerable acclaim.

Pofessional Experience:

Seyed Hassan Hashemabadi began his career as a Research Assistant at [Institution], contributing to projects on fluid dynamics and heat transfer. He progressed to roles such as Assistant Professor at [University], where he taught undergraduate and graduate courses and supervised research projects. Currently, he is a Professor at [University/Institution], where he leads a research team focused on nanofluids and thermal systems, and collaborates with industry partners to apply his research findings to practical applications.

Skills :

Seyed Hassan Hashemabadi possesses advanced skills in fluid mechanics, heat transfer, and nanofluids research. He is proficient in using computational fluid dynamics (CFD) software, thermal analysis tools, and laboratory equipment for experimental research. His expertise also includes project management, academic writing, and presentation skills, enabling him to effectively communicate complex scientific concepts.

Achievements:

Seyed Hassan Hashemabadi has been recognized with several awards for his contributions to chemical engineering, including [specific awards, e.g., Best Researcher Award, Excellence in Teaching Award]. His research has been published in prestigious journals and presented at international conferences, influencing the field of heat transfer and nanofluids. He has also secured significant funding for his research projects and has collaborated with industrial partners to develop innovative thermal management solutions.

Publications :

Conclusion:

Based on the outlined strengths and potential areas for improvement, Seyed Hassan Hashemabadi appears to be a strong candidate for both the Research for Community Impact Award and the Best Researcher Award. His demonstrated research expertise, innovative approaches, community engagement, and leadership qualities position him well for these recognitions. By addressing the identified areas for improvement, he can further enhance his contributions and ensure the long-term sustainability and broader reach of his research impact.

Xiang Shi-Li | Materials Science | Best Researcher Award

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Dr. Xiang Shi-Li | Materials Science | Best Researcher Award

Head of Photolithography Research and Development at Hubei Jiufengshan Laboratory, China

Xiang Shi-Li is a semiconductor technology researcher with a focus on lithography manufacturing and semiconductor materials. He earned his Doctorate degree from Huazhong University of Science and Technology and currently leads the Lithography Research and Development department at Hubei Jiufengshan Laboratory in Wuhan, China. Xiang’s research interests encompass advanced lithography manufacturing, intelligent materials, bioinspired systems, RF devices, and MEMS. His work aims to enhance the efficiency and performance of semiconductor devices through innovative manufacturing processes and materials.

Professional Profile:

📚 Education:

Xiang Shi-Li pursued his doctoral studies at Huazhong University of Science and Technology, where he focused on semiconductor manufacturing. During his time there from September 2016 to June 2021, he conducted research and coursework to deepen his understanding of advanced lithography manufacturing, semiconductor materials, and photoresist polymer materials. His doctoral research likely involved exploring innovative approaches to semiconductor manufacturing processes and materials, aiming to improve efficiency and performance in the field. This educational background has equipped him with the knowledge and skills necessary to excel in his current role as the Head of Lithography Research and Development at Hubei Jiufengshan Laboratory.

📝Work Experience:

Xiang Shi-Li has extensive experience in the field of semiconductor technology, particularly in lithography research and development. Since July 2022, he has been leading the lithography research and development efforts at Hubei Jiufengshan Laboratory. In this role, he is responsible for overseeing the development of advanced lithography manufacturing processes, semiconductor materials, and photoresist polymer materials. Prior to his current position, Xiang served as an Associate Professor, contributing to the Process R&D Center. During this time, he likely conducted research, taught courses, and mentored students in semiconductor manufacturing and related fields. His work may have included developing new technologies and methodologies to improve semiconductor manufacturing processes and materials. Overall, Xiang’s work experience reflects his expertise and dedication to advancing semiconductor technology. His contributions in research and development have the potential to drive innovation and improve the performance of semiconductor devices and systems.

📊Research focus:

Xiang Shi-Li’s research focuses on various aspects of semiconductor technology, with a particular emphasis on lithography manufacturing. His work includes investigating advanced lithography manufacturing processes to improve semiconductor device performance and efficiency. Additionally, Xiang is interested in semiconductor materials and photoresist polymer materials, exploring their properties and applications in semiconductor manufacturing. He also delves into intelligent materials and bioinspired systems, likely looking at how nature-inspired designs can be applied to improve semiconductor technologies. Xiang’s research extends to radio frequency (RF) devices and micro-electro-mechanical systems (MEMS), where he explores new materials and fabrication techniques for these devices. Overall, Xiang’s research is characterized by a multidisciplinary approach, combining aspects of materials science, engineering, and physics to advance semiconductor technology. His work has the potential to contribute significantly to the development of next-generation semiconductor devices and systems.

 

Publications :

Photodegradable Polyurethane Resist with High Photosensitivity Based on Hexaarylbiimidazole Molecule Photoswitch

Authors: Xiang, S.-L.; Luo, P.-F.; Ren, Y.-Y.; Liu, J.; Zhu, M.-Q.

Journal: ACS Applied Polymer Materials, 2024

Volume: 6

Issue: 5

Pages: 2496–2503

Dual nonionic photoacids synergistically enhanced photosensitivity for chemical amplified resists

Authors: Peng, L.-Y.; Xiang, S.-L.; Huang, J.-D.; Liu, J.; Zhu, M.-Q.

Journal: Chemical Engineering Journal, 2024

Volume: 482

Pages: 148810

Recent advances in super-resolution optical imaging based on aggregation-induced emission

Authors: Zhu, F.-Y.; Mei, L.-J.; Tian, R.; Zhu, M.-Q.; Tang, B.Z.

Journal: Chemical Society Reviews, 2024

Status: Article in Press

Visible-light-driven isotropic hydrogels as anisotropic underwater actuators

Authors: Shi-Li Xiang, Yu-Xuan Su, Hong Yin, Chong Li*, Ming-Qiang Zhu*

Journal: Nano Energy

Year: 2021

Volume: 85

Page: 105965

Photoplastic self-healing polyurethane springs and actuators

Authors: Shi-Li Xiang, Qiong-Xin Hua, Peng-Ju Zhao, Wen-Liang Gong, Chong Li*, Ming-Qiang Zhu*

Journal: Chemistry of Materials

Year: 2019

Volume: 31

Issue: 14

Pages: 5081-5088