Javad Rostami-Fluid Mechanics-Academic Achievement in Environmental Engineering Award

Javad Rostami - Fluid Mechanics - Academic Achievement in Environmental Engineering Award

Associate Professor at Razi University, Iran

Javad Rostami is currently serving as an Associate Professor in the Department of Mechanical Engineering at Razi University. With expertise in heat transfer, fluid mechanics, and computational simulations, Rostami has significantly contributed to the thermal sciences. His academic focus blends teaching, research, and practical design work in thermal systems. Through a balanced combination of academic teaching and applied engineering services, Rostami has gained recognition for his comprehensive approach to engineering problems, particularly in the area of microchannel heat transfer using nanofluids.

Professional Profile

GOOGLE SCHOLAR | SCOPUS | ORCID

Education

The academic background of Javad Rostami includes a Bachelor's and Master’s degree in Mechanical Engineering from the University of Tehran and a Ph.D. from Amirkabir University of Technology. His research has focused on advanced thermal systems, evident in his progression from undergraduate to doctoral theses involving heat transfer mechanisms. The Ph.D. work, in particular, emphasized the numerical modeling of two-phase fluid flows and heat transfer in microchannels, aligning with his ongoing research themes.

Professional Experience

Rostami has served extensively at Razi University, delivering a wide range of undergraduate and graduate courses. His teaching portfolio covers foundational and advanced topics such as Thermodynamics, Fluid Mechanics, CFD, and Advanced Fluid Mechanics. Additionally, he has provided design and inspection services in collaboration with the Iranian Construction Engineering Organization, contributing to residential building projects involving water piping and air conditioning systems since 2009.

Research Interest

Javad Rostami’s research centers on convective heat transfer, particularly in microchannels, wavy channels, and porous media. His work extensively explores the application of nanofluids and phase change materials in thermal management systems. Rostami is especially interested in conjugate heat transfer, the use of numerical simulations to optimize thermal performance, and innovations in fluid-structure thermal interaction using modern computational tools like Eulerian–Lagrangian methods.

Award And Honor

Rostami has earned professional respect through his consistent scholarly output and contributions to mechanical engineering education. Recognition of his scientific contributions is reflected in numerous publications in ISI-indexed journals. His membership in the Iranian Construction Engineering Organization and participation in national and international conferences further illustrates his professional involvement and academic leadership.

Research Skill

Javad Rostami demonstrates strong research capabilities in computational fluid dynamics and numerical modeling. He has proficiency in tools such as Fortran, Tecplot, and simulation environments for solving complex thermal problems. With experience in two-phase flow simulations, porous media, and PCM applications, his analytical skills bridge the gap between theoretical thermal science and applied engineering design, aiding in performance optimization of modern energy systems.

Publications

The publication record of Javad Rostami includes over 30 research papers in top-tier international and national journals. These works cover topics such as wavy microchannel heat transfer, nanofluid behavior, and optimization of thermal systems. His contributions are notable in journals like Advanced Powder Technology, Heat and Mass Transfer, and Applied Thermal Engineering. He has also actively participated in engineering conferences, enriching the academic discourse on heat transfer innovations.

Title: Optimization of conjugate heat transfer in wavy walls microchannels
Authors: J Rostami, A Abbassi, M Saffar-Avval
Journal: Applied Thermal Engineering, 82, 318–328

Title: Conjugate heat transfer in a wavy microchannel using nanofluid by two-phase Eulerian–Lagrangian method
Authors: J Rostami, A Abbassi
Journal: Advanced Powder Technology, 27 (1), 9–18

Title: Unsteady natural convection in an enclosure with vertical wavy walls
Authors: J Rostami
Journal: Heat and Mass Transfer, 44 (9), 1079–1087

Title: Heat transfer by nanofluids in wavy microchannels
Authors: J Rostami, A Abbassi, J Harting
Journal: Advanced Powder Technology, 29 (4), 925–933

Title: A correlation for free convection heat transfer from vertical wavy surfaces
Authors: M Ashjaee, M Amiri, J Rostami
Journal: Heat and Mass Transfer, 44 (1), 101–111

Title: Convective heat transfer by micro-encapsulated PCM in a mini-duct
Authors: J Rostami
Journal: International Journal of Thermal Sciences, 161, 106737

Conclusion

Javad Rostami stands as a dedicated researcher and educator in the mechanical engineering field with a clear focus on heat transfer and energy system optimization. His balanced career in academia and applied engineering underscores his ability to contribute both theoretically and practically to modern engineering challenges. Rostami’s work in enhancing the performance of thermal systems continues to impact the design and understanding of efficient energy solutions in engineering applications.

Siyu Wang – Wind Engineering – Best Researcher Award

Siyu Wang - Wind Engineering - Best Researcher Award

Chongqing University - China

AUTHOR PROFILE

Scopus

EARLY ACADEMIC PURSUITS

Siyu Wang's academic journey is marked by a relentless pursuit of excellence in Civil Engineering, with a focus on Wind Engineering. From her undergraduate studies at Chongqing Jiaotong University to her current pursuit of an M.D. in Civil Engineering at Chongqing University, Wang has consistently demonstrated exceptional dedication and academic prowess in her chosen field.

PROFESSIONAL ENDEAVORS

Wang's professional endeavors encompass a wide array of research projects and publications that delve into the intricacies of Wind Engineering. Through her collaboration with esteemed researchers and institutions, she has contributed significantly to understanding the aerodynamic mechanisms and responses of high-rise buildings, inclined structures, and complex terrain.

CONTRIBUTIONS AND RESEARCH FOCUS

Wang's research focus centers on the aerodynamic behaviors of structures under varying wind conditions, with a particular emphasis on transverse inclination, fluid-structure interactions, and the morphological effects of wind flow around sloped terrain. Her publications and ongoing research projects showcase her expertise in computational fluid dynamics (CFD), wind tunnel testing, and deep learning techniques applied to wind engineering problems.

IMPACT AND INFLUENCE

Wang's research contributions have made a tangible impact on the field of Wind Engineering, advancing knowledge in areas such as aerodynamic interference effects, pollutant dispersion in urban environments, and wind field analysis in mountainous regions. Her work has the potential to inform engineering practices and improve the resilience and sustainability of built environments in the face of dynamic wind forces.

ACADEMIC CITES

With multiple publications in esteemed journals and presentations at international conferences, Wang's research has garnered recognition and citations within the academic community. Her collaborative efforts with leading researchers reflect her commitment to advancing the frontiers of Wind Engineering and addressing pressing challenges in the field.

LEGACY AND FUTURE CONTRIBUTIONS

As Siyu Wang continues to expand her research portfolio and academic pursuits, her legacy in Wind Engineering will be characterized by her innovative approaches to understanding and mitigating the effects of wind on built environments. Her future contributions hold promise for enhancing structural design methodologies, optimizing wind-resistant technologies, and fostering sustainable urban development practices.

NOTABLE PUBLICATION

Aerodynamic mechanism of transversely inclined prisms under various wind attack angles 2024

Fluid–structure interaction on vibrating square prisms considering interference effects   2023 (1)

Parallel ribbon vortex: A phenomenological flow feature in an atmospheric boundary layer near sloped terrain 2023 (3)

The role of transverse inclination on the flow phenomenology around cantilevered prisms and the tripole wake mode 2023 (12)

Theodore Potsis – Computational wind engineering – Research Excellence in Civil and Environmental Engineering Award

Theodore Potsis - Computational wind engineering - Research Excellence in Civil and Environmental Engineering Award

Concordia University - Canada

AUTHOR PROFILE

Scopus
ORCID

EARLY ACADEMIC PURSUITS

Theodore Potsis embarked on his academic journey at the National Technical University of Athens (NTUA), where he pursued a Bachelor's and Master's degree in Civil Engineering with a specialization in Structural Engineering. His master's thesis titled "Numerical investigation of wind loading on circular and square obstacles" showcased his early interest in computational wind engineering and its application to structural analysis.

PROFESSIONAL ENDEAVORS

As a Ph.D. candidate at Concordia University, Theodore Potsis has been actively involved in computational wind engineering research, focusing on structural and environmental applications. His contributions include investigating wind-induced peak pressures on building roofs and developing computational methodologies for dynamic terrain analysis. Prior to his doctoral studies, Theodore gained research experience as an independent researcher at the Institute of Steel Structures, NTUA, where he conducted numerical investigations of wind loads on bridge decks and obstacles.

CONTRIBUTIONS AND RESEARCH FOCUS

Theodore Potsis's research in computational wind engineering has led to significant contributions in understanding wind behavior and its impact on building structures. His publications in reputable journals such as the Journal of Wind Engineering and Industrial Aerodynamics and Buildings have advanced knowledge in areas such as dynamic terrain methodology, wind-induced pressures on buildings, and spectral content expression in the lower atmospheric boundary layer.

IMPACT AND INFLUENCE

Through his research and presentations at international conferences, Theodore Potsis has contributed to shaping the field of computational wind engineering. His work on computational methodologies and wind load analysis has influenced research directions and practical applications in building design, urban planning, and environmental assessment.

ACADEMIC CITATIONS

Theodore Potsis's publications have been cited by fellow researchers and professionals in the field of wind engineering, indicating the impact and relevance of his research findings. His contributions to computational wind engineering have been recognized for their significance in advancing methodologies for assessing wind loads and designing resilient structures.

LEGACY AND FUTURE CONTRIBUTIONS

As Theodore Potsis continues his academic and research endeavors, his legacy lies in the continued advancement of computational wind engineering and its applications in structural and environmental domains. Through ongoing collaborations, teaching experiences, and mentoring, he aims to inspire future generations of researchers and engineers to address complex challenges in wind engineering and contribute to building safer and sustainable built environments.

COMPUTATIONAL WIND ENGINEERING

Theodore Potsis's professional pursuits and research focus center around computational wind engineering, a discipline that involves the numerical simulation and analysis of wind behavior and its effects on structures and the environment. Through his doctoral research and previous projects, he has demonstrated expertise in developing computational methodologies, conducting wind load analysis, and enhancing understanding of wind-structure interaction.

NOTABLE PUBLICATION

Computational wind engineering: 30 years of research progress in building structures and environment.  2023 (13)