جست‌وجوی استاد و پژوهشگر

José Ramón García Cascalesمشاهده پروفایل

استاد

• Thermodynamics
• Heat Pump Technology
• Refrigeration Engineering
• +۳ مورد دیگر

José Ramón García Cascales is a Professor at the Polytechnic University of Cartagena specializing in thermal engineering and sustainable energy systems. His research focuses on advancing CO 2 -based heat pump technology for domestic and industrial applications, with particular expertise in transcritical cycles and mechanical subcooling systems. His primary research interests include: Thermodynamics of alternative refrigerants Numerical modeling of heat transfer systems Experimental characterization of CO 2 heat pumps Domestic hot water production optimization Sustainable heating and cooling solutions Transient thermal system behavior Analysis of his 15 most recent publications (2021-2025) reveals a consistent research trajectory centered on CO 2 heat pump optimization. Key trends include mechanical subcooling strategies, gas cooler pressure control, and integration with thermal storage systems. His work combines high-fidelity numerical modeling with experimental validation across diverse operating conditions, demonstrating significant contributions to improving energy efficiency in residential and commercial heating applications. No scientific awards or notable grants were explicitly mentioned in the source material. Similarly, information regarding student supervision, laboratory facilities, or collaborative teams was not provided in the available documentation.

• Raw earth construction
• Hygrothermal properties of building materials
• Sustainable construction
• +۵ مورد دیگر

Philippe Poullain is a Lecturer and Educational Manager at the Department of Civil Engineering and Sustainable Construction, IUT of Saint Nazaire, University of Nantes. His work spans teaching and research in sustainable construction methods, with particular expertise in raw earth construction and large-scale additive manufacturing for building construction. He is affiliated with the GeM - IEG research team and actively collaborates with industry partners through the Robotics and Construction Site working group. Professor Poullain's research interests focus on characterizing raw earth construction methods to determine their mechanical and hygrothermal properties, with special attention to material variability. His work extends from material scale to wall scale using biclimatic chamber testing. He also investigates large-scale additive manufacturing, particularly 3D printing for construction using bio-sourced materials. His research on the raw earth heritage of the Guérande peninsula examines why earth construction was historically limited to the eastern part of the region. His recent publication record shows consistent output in high-impact construction journals, with 2024 publications addressing sustainable construction through tradition, hygrothermal performance assessment, and sensitivity analysis of material properties. His work spans fundamental material characterization to applied construction technologies, reflecting both academic rigor and practical application. Professor Poullain supervises numerous PhD students working on topics including raw earth composites, 3D printing materials, and building performance simulation. His collaborative approach is evident in his work with the LS2N researchers that led to startup creation, and his participation in industry-academic working groups focused on construction automation. His research has practical applications demonstrated through the Yhnova demonstrator project, a flagship initiative of the University of Nantes.

• MEMS and Micro/Nanofluidics
• Biomicrofluidics
• Nanoengineered Energy Systems
• +۲ مورد دیگر

Dr. Jeff Darabi is a Professor and Ph.D. Program Director in the Department of Mechanical and Mechatronics Engineering at Southern Illinois University Edwardsville (SIUE). He holds a Ph.D. in Mechanical Engineering from the University of Maryland. His research spans micro/nanofluidics, biomicrofluidics, energy systems, and multiphysics modeling, with applications in biomedical devices and thermal management. Research Interests: MEMS and Micro/Nanofluidics Biomicrofluidics for cell separation and diagnostics Nanoengineered thermal systems for electronics cooling Coupled physics simulations (fluid, thermal, electromagnetic) His recent publications (2016–2019) demonstrate a focus on magnetophoretic bioseparation chips, microfluidic device design, and advanced materials like copper-CNT composites. This work emphasizes computational modeling integrated with experimental validation.

Enedir Ghisiمشاهده پروفایل

استاد

• Energy Efficiency in Buildings
• Thermal Performance of Buildings
• Sustainability
• +۵ مورد دیگر

Professor Enedir Ghisi serves as a full Professor in the Department of Civil Engineering within the College of Engineering at the Federal University of Santa Catarina (UFSC) in Florianópolis, Brazil. His career includes significant international collaboration, notably as a Visiting Researcher at Stanford University during 2020-2023 where his work earned global recognition. His research expertise spans eight core areas with primary focus on Energy Efficiency in Buildings and Water Consumption/Rainwater Harvesting . The fingerprint analysis of his work shows 46% concentration in building-related research, 18% in water consumption studies, and significant contributions to sustainability (11%), rainwater utilization (7%), and climate change adaptation (5%). Professor Ghisi's recent publication output demonstrates continued leadership in building science, with 2025 publications addressing rainwater harvesting in residential/fitness facilities, fire safety compliance, thermal comfort in subtropical offices, and urban heat island impacts in São Paulo. His work consistently bridges experimental field studies with simulation modeling. Recognized as top 100,000 scientist globally by Stanford University (career impact 2020-2023) Recognized as top 100,000 scientist annually (2019-2023) 10 edited books and 14 book chapters demonstrating thought leadership Multiple best-paper awards at international building science conferences He actively supervises 16 graduate students (12 PhD, 4 Masters) while maintaining laboratory operations through the Laboratory of Energy Efficiency in Buildings. His supervision record of 54 completed graduate students (14 PhD, 40 Masters) reflects substantial mentorship capacity. Current research integrates climate change projections with practical building solutions, particularly for water-energy nexus optimization in Brazilian contexts. The Laboratory of Energy Efficiency in Buildings serves as his primary research hub, conducting experimental work on building performance, water harvesting systems, and thermal comfort solutions tailored for subtropical climates. His team maintains strong industry partnerships for real-world implementation of research findings.

• 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.

Simon Rouchierمشاهده پروفایل

مدرس ارشد

• statistical learning for building energy performance
• building energy simulation
• Bayesian inference methods
• +۷ مورد دیگر

Simon Rouchier is a Senior Lecturer at Université Savoie Mont-Blanc, affiliated with Polytech Annecy Chambéry engineering school and the LOCIE (Laboratory of Solar Energy and Architectural Physics) research laboratory. His academic position falls under CNU section 60, and he has been a faculty member at USMB since 2013. Dr. Rouchier's research focuses on applying advanced statistical learning techniques to building energy performance problems. His work bridges thermodynamics, building physics, and data science to solve practical challenges in energy efficiency. Key research areas include statistical learning for building energy performance evaluation, Bayesian inference methods for parameter estimation, heat and moisture transfer modeling in building materials, and optimization of building retrofit solutions. He is the principal developer of two significant open-source software packages: pySIP for stochastic state-space modeling and hamopy for heat, air and moisture transfer simulation. These tools demonstrate his commitment to making advanced modeling techniques accessible to the research and professional community. Member of LOCIE research laboratory Specializes in building energy simulation and statistical learning applications Develops open-source software for physical modeling Focuses on practical applications for building energy efficiency Dr. Rouchier maintains an active research profile with contributions spanning building physics, statistical methods, and software development, positioning him at the intersection of engineering and data science in the building energy domain.

Monika Woloszynمشاهده پروفایل

استاد

• Building Physics
• Heat and Mass Transfer
• Solar Energy in Buildings
• +۴ مورد دیگر

Monika Woloszyn is a University Professor at University of Savoie Mont Blanc, assigned to Polytech Annecy Chambéry engineering school. She directs the Solar Academy University Research School and leads the Master's program in Solar Energy: Engineering and Management while co-coordinating the BASE scientific theme at LOCIE research laboratory. Her research specializes in building physics with focus on hygro-thermal phenomena, coupled heat/mass transfer in porous materials, and solar energy integration. She develops computational models validated through experimental work on building envelopes and low-carbon materials to advance sustainable construction practices and energy performance metrics. As Editor of Building and Environment journal and editorial board member for Journal of Building Physics, she shapes scholarly discourse in the field. Her leadership extends to USMB Academic Council governance and CAC-R research commission presidency, driving institutional research strategy while maintaining active roles in IBPSA and Building Physics scientific networks. She directs LOCIE's BASE theme which investigates advanced building systems through interdisciplinary collaboration, emphasizing practical applications of building physics research for solar-integrated architecture and energy-efficient construction. Her work bridges theoretical modeling with experimental validation to address real-world sustainability challenges in the built environment.