جست‌وجوی استاد و پژوهشگر

Su Hieng Tiongمشاهده پروفایل

استاد

• RF and Microwave Engineering
• Wireless Energy Harvesting
• Microwave Passive Devices
• +۴ مورد دیگر

Professor Su Hieng Tiong serves as Dean and Professor of the Faculty of Engineering, Computing and Science at Swinburne University of Technology Sarawak Campus. With a PhD from the University of Birmingham and BEng (Hons) from Liverpool, he brings over 25 years of combined industry and academic expertise in electrical engineering. Education PhD in Electronic and Electrical Engineering, University of Birmingham, UK (2001) BEng (Hons) in Electrical Engineering and Electronics, University of Liverpool, UK (1994) Research Focus : Professor Su's work centers on RF and Microwave Engineering , with pioneering contributions to RF energy harvesting systems , compact multimode resonator filters , and substrate integrated waveguide technology . His research bridges theoretical microwave principles with practical implementations for next-generation communication systems, particularly addressing challenges in spectrum efficiency and rural connectivity. Publication Trends : Recent publications (2020-2022) demonstrate strategic expansion into real-world applications including TV white space antennas for rural Sarawak and cost modeling for internet infrastructure. Earlier work (2012-2015) established foundational innovations in multimode filter design, showing consistent progression from component-level research to system-level implementations. Research Leadership : Professor Su has secured major grants including Principal Investigator roles for Digital Sarawak's rural infrastructure project (2019-2021) and Ministry of Education's ultra-compact filter study (2011-2013). His active supervision of research students focuses on translating theoretical microwave concepts into deployable communication solutions.

Urs Grafمشاهده پروفایل

پژوهشگر

• Terahertz Astronomy
• Submillimeter Astronomy
• Heterodyne Receivers
• +۲ مورد دیگر

Dr. Urs Graf is a researcher at the University of Cologne, where he leads the SubMillimeter and Terahertz Receiver Group . His work focuses on developing advanced astronomical instrumentation, particularly heterodyne receivers for submillimeter and terahertz observations. Key projects include CHAI (CCAT-prime Heterodyne Array Instrument), GREAT (German Receiver for Astronomy at Terahertz Frequencies) for SOFIA, and SMART (SubMillimeter Array Receiver for Two Frequencies). His research interests span terahertz astronomy, quantum cascade lasers, beam measurement techniques, Fourier gratings for LO multiplexing, and compact array receiver modules (CHARM). He specializes in bridging theoretical concepts with practical instrumentation for ground-based and airborne observatories. Dr. Graf maintains active collaborations with ETH Zurich (QCL development), MPIfR Bonn (SOFIA receivers), SOFIA operations, University of Chile (submillimeter receivers), and Cornell University (CCAT telescope). His 15 most recent publications demonstrate expertise in terahertz receiver design, spectrometer development, quantum cascade laser integration, and astronomical instrumentation. He leads a research team including Matthias Justen, Sayyid Mahdizadeh, Marc Mertens, Xiaodong Ren, Pablo Tapia, Henning Adams, Ayyaz Mahmood, and Bernhard Schmidt. The group focuses on advancing terahertz technology for astronomical applications.

Xianchang Liمشاهده پروفایل

استاد

• Computational Fluid Dynamics
• Heat Transfer Enhancement
• Combustion Optimization
• +۵ مورد دیگر

Dr. Xianchang Li serves as Professor in the Department of Mechanical Engineering at Lamar University, where he leads research in computational thermal-fluid sciences. His work bridges fundamental heat transfer and combustion principles with critical environmental applications. Ph.D. in Mechanical Engineering, Clemson University (1999) M.S. in Thermal Engineering, Tsinghua University B.S. in Thermal Engineering, Tsinghua University Dr. Li's research focuses on three interconnected domains: gas turbine thermal management (notably backward-injection film cooling and mist-assisted techniques), industrial flare emissions optimization, and hydrodynamic water quality modeling. His gas turbine work has demonstrated up to 40% more uniform cooling coverage through innovative backward injection methods, while his flare research develops high-fidelity CFD models to simultaneously minimize black carbon and VOC emissions. The water quality modeling investigates urban stormwater systems using wireless sensor networks and hydrodynamic simulations to improve sustainability. His publication record shows consistent output in top journals like Journal of Heat Transfer , ASCE Journal of Irrigation and Drainage Engineering , and Journal of the Air & Waste Management Association , with recent work emphasizing emission reduction and sustainable water management. Lamar University Merit Award (2009) Dr. Li maintains active collaborations with Chemical Engineering (Drs. Chen and Lou), Civil Engineering (Drs. Lin and Qian), and Chemistry (Dr. Martin) faculty at Lamar University. His research group has secured funding from NSF, TCEQ, and industry partners to support 25+ graduate students across thermal-fluid, combustion, and environmental projects. Current students investigate ammonia co-firing emissions, earth pipe heat transfer, and spray cooling optimization. The research group operates advanced CFD simulation capabilities and experimental facilities for thermal-fluid investigations, with recent projects including gas turbine combustor LES modeling, mercury flux chamber design, and solar chimney ventilation systems.

Adam Lamęckiمشاهده پروفایل

دانشیار

• Microwave Engineering
• Antenna Design
• RF Filter Design
• +۳ مورد دیگر

Dr. Adam Lamęcki serves as an Associate Professor at Gdańsk University of Technology within the Faculty of Electronics, Telecommunications and Informatics. His primary affiliation is with the Department of Microwave and Antenna Engineering, where he conducts research on advanced microwave components and electromagnetic systems. Contact information includes email adalamec@pg.edu.pl and phone +48 58 347 2917. His research focuses on microwave filter design , antenna engineering , and computational electromagnetics , with particular expertise in 3D-printed components, dispersive-delay structures, and multipactor simulation. Recent work demonstrates innovation in coaxial-line filters for Earth observation systems, compact beam-switching antennas for ISM bands, and self-equalized Chebyshev microwave filters using frequency-variant coupling networks. Analysis of his 2024-2025 publications reveals strong emphasis on practical RF component implementation and open-source simulation tools , with applications spanning telecommunications, satellite systems, and industrial microwave devices. His work consistently bridges theoretical microwave theory with experimental validation. Lamęcki leads significant research projects funded through Poland's National Science Center, including PRELUDIUM BIS and OPUS grants focused on advanced mesh deformation techniques for electromagnetic structure optimization. His projects operate within the Faculty of Electronics, Telecommunications and Informatics under agreements UMO-2020/39/O/ST7/02897 and UMO-2013/09/B/ST7/04202.

Shahid Khanمشاهده پروفایل

استادیار

• Wireless Communications
• Antenna Design
• 5G/6G Networks
• +۵ مورد دیگر

Dr. Shahid Khan serves as an Assistant Professor in the Department of Microelectronic Systems at the Faculty of Electronics, Telecommunications and Informatics, Gdańsk University of Technology. His academic appointment is firmly situated within the engineering faculty, where he contributes to research and teaching in microelectronics and telecommunications systems. Research Interests: Dr. Khan's primary research spans wireless communications for 5G and beyond (B5G), with a concentrated focus on Internet of Things (IoT) applications. His work encompasses the design of advanced antenna systems including MIMO configurations for millimeter-wave frequencies, beam steering techniques, and the integration of machine learning for mobility management in autonomous vehicle networks. He also investigates electromagnetic structures such as frequency selective surfaces and metamaterials to enhance wireless coverage and reduce path loss in advanced communication systems. Publication Trends: His 2025 publications demonstrate a cohesive research trajectory centered on innovative solutions for 5G IoT infrastructure. Key themes include compact antenna array design for millimeter-wave bands, port isolation techniques using metamaterials, and machine learning algorithms for seamless handovers in vehicular networks. These contributions appear in high-impact journals including IEEE Internet of Things Journal and Scientific Reports, reflecting his specialization in advancing wireless communication technologies for next-generation applications. Scientific Awards: No specific awards, fellowships, or medals were mentioned in the provided information. Advising and Grants: The available text contains no details regarding graduate students supervised by Dr. Khan or research grants secured for his projects. His academic profile emphasizes publication output rather than mentoring or funding activities. Laboratory Affiliations: While specific laboratory facilities aren't explicitly detailed, his research on 3D-printed dielectric lenses and metamaterial integration suggests active involvement with antenna fabrication and testing facilities within the Department of Microelectronic Systems.

• Coherent beam combining
• Semiconductor lasers
• Optically pumped semiconductor lasers
• +۵ مورد دیگر

Gaëlle Lucas-Leclin is a Senior Lecturer at the Charles Fabry Laboratory within the Institut d'Optique Graduate School. She has been affiliated with the Institut d'Optique since 1998, following the completion of her PhD in physical sciences from Paris-Sud University. Her academic career spans over 25 years, during which she has established herself as a specialist in laser physics, particularly in coherent beam combining and semiconductor laser technologies. Professor Lucas-Leclin's research focuses on two primary areas: coherent combination of high-power laser diodes and optically pumped semiconductor lasers. Her work addresses fundamental challenges in achieving high-brightness laser sources through innovative beam combining techniques using volume Bragg gratings and Dammann gratings. Her research has significant applications in atomic clocks, environmental sensing through differential absorption lidar, and advanced optical imaging systems. The publication record spanning from 2000 to 2024 demonstrates consistent research productivity and evolving expertise in laser technology. Analysis of her 15 most recent publications reveals a strong focus on coherent beam combining techniques, semiconductor laser development, and applications in atomic physics and environmental monitoring. Her work shows a progression from fundamental laser physics to increasingly applied research, with recent publications emphasizing practical implementations for water vapor detection and real-time imaging applications. As an educator, Professor Lucas-Leclin contributes significantly to the engineering program at the Institute of Optics, teaching courses on semiconductor components, laser sources, and optical systems design. She also coordinates the ZupDeCo Tutoring Program and teaches in the Professional Master's Degree in Embedded Lighting Systems, demonstrating commitment to both fundamental research and practical applications of optical technologies. Within the Charles Fabry Laboratory, Professor Lucas-Leclin leads the Lasers group's research in her specialized areas, collaborating extensively with researchers across France and internationally. Her work exemplifies the strong connection between fundamental laser physics research and practical applications that characterizes the Institut d'Optique's approach to photonics research and education.

Francisco Aznarمشاهده پروفایل

دانشیار

• RF and Microwave Circuits
• CMOS Circuit Design
• Optical Communications
• +۵ مورد دیگر

Francisco Aznar is an Associate Professor at Centro Universitario de la Defensa en San Javier, Spain, specializing in electrical engineering and physics research. His work spans RF and microwave circuit design, CMOS integrated circuits, optical communications, and particle physics detector technology. His research interests include: RF and Microwave Circuit Design CMOS Integrated Circuit Development Optical Communications Systems Low-Noise Amplifiers and Phase Shifters Particle Physics Detector Technology Dark Matter Detection Experiments Educational Technology Applications Professor Aznar has maintained a robust publication record with 92 publications showing consistent output through 2025. His recent work demonstrates expertise across multiple domains, with publications in high-frequency circuit design, optical communications, and innovative educational technology applications. His research shows particular strength in quadrature signal generation, phase shifter design, and low-noise amplifier development using CMOS technology. His notable scientific contributions include: Development of advanced RF circuit designs for communications systems Contributions to the TREX-DM experiment for low-mass WIMP detection Innovations in CMOS circuit design for optical communications Recent work on intelligent tutoring systems for physics education Professor Aznar actively collaborates with researchers across Spain and internationally, particularly in the fields of particle physics detector development and RF circuit design. His work on the TREX-DM experiment at the Canfranc Underground Laboratory demonstrates his involvement in cutting-edge physics research. He also maintains a strong commitment to education, with recent publications focused on improving laboratory skills and developing intelligent tutoring systems for higher education. His research group, associated with S. Celma's Lab, provides students with opportunities to work on both theoretical and applied aspects of electrical engineering and physics, with applications ranging from communications technology to fundamental physics research.

• Thermal Engineering
• Industrial Energy Systems
• Energy Technology
• +۲ مورد دیگر

D'Alessandro Giampaolo is a Researcher (temporary position) at the University of L'Aquila, specifically within the Department of Industrial and Information Engineering and Economics. His academic discipline is IIND-07/A - Thermal Engineering and Industrial Energy Systems, and he belongs to Academic Recruitment Field 09/IIND-07 covering Thermal sciences, energy technology, building physics and nuclear engineering. His work is situated within Area 09 - Industrial and Information Engineering at the university. Dr. Giampaolo's research focuses on thermal engineering and industrial energy systems, with particular emphasis on heat transfer optimization, energy recovery in industrial processes, thermal management solutions, and applications in building physics. His work bridges theoretical thermal science with practical industrial applications, addressing critical challenges in energy efficiency and sustainability. Analysis of his recent publication trends shows a consistent focus on advancing thermal management technologies across multiple domains including electronics cooling, industrial process optimization, building energy systems, and nuclear engineering applications. His research output demonstrates a methodological approach combining computational modeling with experimental validation to develop practical engineering solutions. While specific award information isn't available in the current records, his research in thermal engineering addresses critical challenges in industrial energy efficiency and sustainable technology development, which are areas of growing importance in contemporary engineering research. Dr. Giampaolo's work in thermal engineering provides valuable opportunities for students interested in energy systems, heat transfer optimization, and sustainable industrial technologies. His research has direct applications in improving energy efficiency across multiple industrial sectors and contributes to the broader goals of sustainable engineering practices.