Paul Scheck | Physics | Best Researcher Award

Mr. Paul Scheck | Physics | Best Researcher Award

HTBLA Hallstatt, Austria

Paul Scheck is an emerging professional in the field of interior architecture, wood technologies, and restoration techniques. With a solid educational foundation from HTBLA Hallstatt and practical experience in both technical drawing and hands-on woodworking, Paul bridges the gap between traditional craftsmanship and modern digital design. His expertise spans across architectural drafting, BIM software, CNC fabrication, and advanced material applications. Paul’s commitment to preserving historical structures is evident through his specialized trainings in historic window restoration, lime burning, and rammed earth construction. His forthcoming publication on the hygrothermal performance of box windows with insulated inner sashes marks his entry into the research community, focusing on sustainable and historically sensitive construction practices. Additionally, Paul demonstrates a strong drive for continuous learning, evident through his diverse skill set in design software, presentation techniques, and material science tools. While still early in his research journey, Paul shows potential for making significant contributions at the intersection of architectural heritage conservation, building physics, and material innovation. His professional growth is complemented by a passion for creative design, outdoor activities, and a forward-looking attitude toward integrating traditional methods with modern technology.

Professional Profile

Education

Paul Scheck completed his secondary and technical education at HTBLA Hallstatt, focusing on interior architecture, wood technologies, and restoration techniques. The program provided him with both theoretical knowledge and hands-on skills in the areas of furniture design, building conservation, and material applications. He successfully passed his Reife- und Diplomprüfung (graduation and diploma examination), affirming his proficiency in combining design thinking with technical execution. Beyond formal schooling, Paul pursued targeted advanced trainings such as rhetoric and presentation techniques, which enhanced his communication and professional presentation abilities. His specialized courses in historical window restoration at the Kaiservilla in Bad Ischl and lime burning techniques in Gößl reflect a commitment to preserving cultural heritage. Additionally, his hands-on experience with rammed earth construction for the Sternenkinder monument, designed by Anna Herringer, further enriched his education by integrating sustainable materials and traditional craftsmanship. These educational achievements provide a solid foundation for his technical work and emerging research focus, equipping him with both broad competencies and niche expertise in the architectural and construction fields.

Professional Experience

Paul Scheck has gained practical experience across both technical drafting and carpentry, contributing meaningfully to real-world projects. At Planarium GmbH in Gmunden, he worked as a technical draftsman during internships in July 2023 and July 2024, where he developed design concepts through hand sketches and digital tools, created comprehensive submission documents, and produced detailed execution plans using BIM software. His active participation in construction meetings and coordination with project stakeholders demonstrated his ability to bridge the phases of design, approval, and implementation. Prior to this, Paul completed a carpentry internship at Tischlerei Stieger in Bad Goisern, where he gained hands-on experience fabricating and assembling furniture, saunas, and structural woodwork. He demonstrated proficiency in operating machinery, using tools, and supporting on-site installations, honing his craftsmanship and technical problem-solving skills. This combination of design, drafting, and manufacturing experience allows Paul to understand projects holistically, from initial concept through to finished execution. His professional background is further strengthened by his software expertise, covering tools such as Revit, AutoCAD, Fusion360, 3ds Max, CNC programming, and various Adobe applications.

Research Interests

Paul Scheck’s research interests focus on the intersection of building physics, sustainable materials, and architectural conservation. His forthcoming publication on hygrothermal interactions in historic box windows with insulated inner sashes highlights his dedication to understanding the material and environmental performance of traditional construction elements. Paul is particularly interested in how modern interventions can be sensitively applied to heritage structures, ensuring energy efficiency and durability while preserving cultural value. Additionally, his practical exposure to lime burning, rammed earth construction, and the restoration of historic elements shapes his research focus on low-carbon, traditional building materials and their performance in contemporary applications. He is also keen on exploring the integration of digital tools like BIM and life cycle assessment software (such as openLCA) to evaluate and optimize construction methods from both an environmental and a design perspective. Through combining craft knowledge with scientific analysis, Paul aims to contribute to the advancement of sustainable architecture, adaptive reuse, and the responsible modernization of historical buildings.

Research Skills

Paul Scheck possesses a well-rounded set of research skills, combining practical material expertise with digital modeling and analytical tools. He is proficient in Autodesk software (Revit, AutoCAD, Fusion360, 3ds Max) and Adobe programs (Illustrator, InDesign, Photoshop), enabling him to create precise technical drawings, renderings, and visual analyses. His familiarity with CNC programming tools (HOPS, AlphaCAM) allows him to prototype and fabricate components accurately, integrating design concepts with manufacturing capabilities. Additionally, Paul has experience using environmental assessment software such as openLCA and Topas, which are valuable for conducting life cycle analyses and material performance evaluations. His hands-on knowledge of historic restoration techniques, gained through specialized workshops and practical internships, equips him to design research projects that combine empirical investigation with field application. With English proficiency at B2 level, Paul is able to access and engage with international literature and scientific discussions. These combined research skills position him well for multidisciplinary work in architectural conservation, sustainable construction, and material innovation.

Awards and Honors

While Paul Scheck is still early in his research career, his most notable academic recognition so far is the acceptance of his co-authored publication on box window performance, which will appear in the journal Bauphysik in 2025. This publication represents an important acknowledgment of his technical insights and contribution to research on hygrothermal performance in historical window systems. Beyond formal awards, Paul’s acceptance into specialized training programs, such as the restoration workshop at the Kaiservilla Bad Ischl and the rammed earth project led by renowned architect Anna Herringer, reflects peer recognition of his technical abilities and commitment to heritage conservation. Although he has not yet accumulated a significant record of research awards or competitive honors, his achievements in combining practical experience with emerging research contributions suggest strong future potential. As his career develops, pursuing grant opportunities, research fellowships, or competitive project funding would allow him to build a more substantial honors portfolio aligned with top researcher profiles.

Conclusion

In conclusion, Paul Scheck is a promising young professional whose strengths lie in the fusion of technical craftsmanship, digital design, and emerging research in sustainable and heritage-sensitive construction. His educational and professional experiences have provided him with a rare blend of theoretical knowledge, practical skill, and a research-oriented mindset, particularly focused on improving the performance of historical building elements. While his research profile is still developing, with only one publication currently accepted, he shows clear dedication to advancing his expertise and contributing to the field. To fully position himself as a leading researcher eligible for major research awards, Paul would benefit from expanding his research output, leading independent projects, seeking research funding, and deepening his engagement with academic and professional communities. Overall, Paul’s profile reflects a strong foundation and considerable growth potential, suggesting that with time and strategic career development, he can become a significant contributor to architectural conservation research and sustainable building innovations.

Ximin Tian | Physics and Astronomy | Best Researcher Award

Assoc Prof Dr. Ximin Tian | Zhengzhou University of Aeronautics | Best Researcher Award

Associate Professor at Zhengzhou University of Aeronautics, China

Dr. Ximin Tian, an Associate Professor, specializes in nanophotonics and artificial electromagnetic metamaterials. Her research focuses on innovative theoretical and experimental advancements in metasurfaces and phase-change materials. Notable achievements include pioneering work on plasmonic Fano resonances, reconfigurable metasurfaces, and perfect absorbers, with her findings published in prestigious journals such as Nanoscale, Optics Express, and Europhysics Letters. Her research has significantly impacted the field, demonstrating both depth and breadth in topics like broadband optical absorption and light enhancement in photovoltaic devices. Tian’s collaborative approach and diverse publications reflect her strong presence in the scientific community. For further recognition, highlighting impact metrics, recent advancements, and interdisciplinary efforts could enhance her profile. Overall, Dr. Tian’s contributions are substantial and align well with the criteria for the Best Researcher Award.

Profile

Education

Dr. Ximin Tian is an Associate Professor specializing in nanophotonics, electromagnetic metamaterials, and metasurfaces. Her groundbreaking research includes significant contributions to the development of plasmonic Fano resonances, phase-change materials, and tunable metasurfaces, as evidenced by her publications in prestigious journals such as Nanoscale, Optics Express, and Europhysics Letters. Her innovative work on reconfigurable metasurfaces and perfect absorbers has advanced the field of photonics. Dr. Tian’s research, often collaborative, highlights her ability to address complex problems in optical absorption and device enhancement. Although her publications are impactful, a more detailed evaluation of her impact metrics and recent achievements could further strengthen her profile. Expanding her interdisciplinary collaborations and increasing public outreach could also enhance her research’s broader applicability and visibility. Overall, Dr. Tian’s contributions are highly relevant, positioning her as a strong contender for the Best Researcher Award.

Professional Experience

Ximin Tian is an Associate Professor specializing in nanophotonics, artificial electromagnetic metamaterials, and metasurfaces. Her professional journey is marked by significant academic and research roles. She earned her Ph.D. in a relevant field and has since established herself as a leading figure in theoretical and experimental research. Tian’s career is distinguished by her contributions to advanced topics such as plasmonic Fano resonances, phase-change materials, and reconfigurable metasurfaces. She has collaborated with prominent researchers and published extensively in high-impact journals, including Nanoscale, Optics Express, and Europhysics Letters. Her research addresses critical issues in optical materials and devices, demonstrating her expertise in creating innovative solutions for complex problems. As an Associate Professor, she continues to push the boundaries of her field through pioneering research and active participation in academic communities.

Research Interest

Ximin Tian’s research interests primarily focus on advancing the field of nanophotonics through theoretical and experimental exploration of artificial electromagnetic metamaterials and metasurfaces. Her work delves into the development of novel optical materials with tailored properties, such as plasmonic Fano resonances and phase-change materials, to enhance light-matter interactions. Tian’s research encompasses creating reconfigurable metasurfaces for applications in cloaking and optical absorption enhancement. Her studies on wavelength-selective and tunable absorbers aim to address challenges in broadband and polarization-independent light absorption. Additionally, she investigates the integration of these materials into practical devices, such as organic photovoltaic cells, to improve their efficiency and performance. By pushing the boundaries of material science and optical engineering, Tian seeks to contribute to the development of advanced technologies with significant impacts in photonics and optoelectronics

Research Skills

Ximin Tian demonstrates exceptional research skills in the field of nanophotonics and metamaterials. Her expertise spans both theoretical and experimental domains, with a particular focus on plasmonic resonances, phase-change materials, and reconfigurable metasurfaces. Tian excels in designing and fabricating advanced optical materials, leveraging innovative approaches to achieve tunable and switchable functionalities. Her proficiency in using cutting-edge techniques for characterizing and manipulating electromagnetic properties is evident in her high-impact publications. Tian’s work reflects a strong command of nanofabrication, optical measurement, and material science, as well as an ability to integrate complex concepts into practical applications. Her collaborative efforts with other researchers and institutions further highlight her ability to lead and contribute to significant scientific projects. Overall, Tian’s research skills are marked by a blend of creativity, technical expertise, and a commitment to advancing knowledge in her field.

Award and Recognition

Ximin Tian has garnered notable recognition for her groundbreaking contributions to nanophotonics and metamaterials. Her research, which includes advancements in plasmonic Fano resonances, phase-change materials, and tunable metasurfaces, has been published in high-impact journals like Nanoscale and Optics Express. Tian’s innovative work has not only expanded the boundaries of nanophotonics but also enhanced practical applications such as light absorption in photovoltaic devices. Her papers are frequently cited, reflecting the significant impact of her research on the scientific community. In addition to her impressive publication record, Tian’s collaborative efforts and contributions to cutting-edge research highlight her as a leading figure in her field. Her achievements underscore her dedication to advancing scientific knowledge and technology, making her a distinguished candidate for prestigious awards and recognition in the realm of advanced materials and optical sciences.

Conclusion

Ximin Tian’s research portfolio showcases a strong and innovative presence in the field of nanophotonics and metamaterials. Her contributions to the development of advanced materials and devices are noteworthy and align well with the criteria for the Best Researcher Award. To strengthen her nomination, it would be beneficial to emphasize her impact metrics, recent achievements, and broader interdisciplinary collaborations. Overall, her extensive publication record and significant research contributions make her a strong candidate for the award.

Publication Top Notes

  1. Switchable optical trapping and manipulation enabled by polarization-modulated multifunctional phase-change metasurfaces
    • Authors: Xu, Y., Tian, X., Xu, J., Yu, Z., Li, Z.-Y.
    • Journal: Journal of Physics D: Applied Physics
    • Year: 2024
  2. Wavelength-actuated varifocal and polarization-insensitive metalenses assisted by monolayer single-celled phase-change metasurfaces
    • Authors: Xu, J., Xu, Y., Zhang, S., Ji, Y., Pan, X.
    • Journal: Journal of Physics D: Applied Physics
    • Year: 2023
  3. Spin-multiplexing phase-driven varifocal metalenses for multidimensional beam splitting and binary switching
    • Authors: Huang, Y., Xu, J., Tian, X., Duan, X., Li, Z.-Y.
    • Journal: EPL
    • Year: 2023
    • Citations: 1
  4. Novel Approaches for Designing Broadband Achromatic and Polarization-Insensitive Metalenses
    • Authors: Huang, Y., Xu, Y., Zhang, S., Tian, X., Xu, J.
    • Conference: 2023 Light Conference
    • Year: 2023
  5. Direct growth of patterned graphene based on metal proximity catalytic mechanism
    • Authors: Ye, Z., Xu, K., Li, Q., Tian, X., Du, Y.
    • Journal: Journal of Experimental Nanoscience
    • Year: 2023
    • Citations: 2
  6. Graphene-metal based tunable radiative metasurface for information encryption and anticounterfeiting
    • Authors: Wang, P., Su, J., Ding, P., Tian, X., Wang, J.
    • Journal: Diamond and Related Materials
    • Year: 2023
    • Citations: 5
  7. The Field Emission Character of Vertical Graphene Grown by PECVD
    • Authors: Ye, Z., Xu, K., Ding, P., Chen, L., Zeng, F.
    • Journal: Bandaoti Guangdian/Semiconductor Optoelectronics
    • Year: 2022
  8. High-Time-Resolution Microspectrometer Based on Phase-Change Materials
    • Authors: Deng, X., Tian, X., Ren, L., Liu, J., Li, Z.-Y.
    • Journal: Physical Review Applied
    • Year: 2022
    • Citations: 4
  9. Spin-dependent intensity-adjustable phase-change metalenses
    • Authors: Li, J., Tian, X., Xu, J., Chen, T., Kuang, J.
    • Journal: Hongwai yu Jiguang Gongcheng/Infrared and Laser Engineering
    • Year: 2022
  10. Multilayer graphene-based radiation modulator for adaptive infrared camouflage with thermal management
    • Authors: Ding, P., Wang, P., Su, J., Tian, X., Wang, J.
    • Journal: Journal of Physics D: Applied Physics
    • Year: 2022
    • Citations: 12