Mahyar Fazli | Green Building and LEED Design | Best Innovation Award

Dr. Mahyar Fazli | Green Building and LEED Design | Best Innovation Award

Research Assistant | Sharif University of Technology | Iran

Mahyar Fazli is a Research Assistant in the Department of Aerospace Engineering at Sharif University of Technology, specializing in thermoacoustics, renewable energy systems, waste heat recovery, pulsating heat pipes, and advanced thermal management technologies. His professional experience includes leading simulation, analysis, and design efforts on thermoacoustic refrigeration and power-generation systems, contributing to the development of high-efficiency thermal devices, and advancing research on pulsating heat pipes, nanofluid-based solar receivers, and Organic Rankine Cycle applications. He has authored multiple high-impact publications in reputable journals, including comprehensive reviews, experimental investigations, and optimization studies that address thermoacoustic performance, exergy analysis, and innovative cooling strategies. His contributions include conceptual design of thermoacoustic integration in sustainable architecture, advancements in pulsating heat pipe geometries, and methodologies for enhancing heat-driven refrigeration systems. In addition to his research output, he has an extensive record of peer-review service for major international journals across renewable energy, thermal engineering, artificial intelligence, and fluid dynamics, reflecting his recognition as an emerging expert in the field. He actively engages in scholarly communities through editorial and review activities, professional memberships, and interdisciplinary collaborations, demonstrating a strong commitment to advancing sustainable energy technologies and improving thermal system efficiency. His research impact includes 517 citations, 8 publications, an h-index of 7.

Featured Publications

1. Ansari M., Basiri M., Fazli M., Mazaheri K., Hosseinzadeh S., Matini M.R., Innovative integration of thermoacoustic technology in architectural design for sustainable cooling: A conceptual design. Energy, 2025, 139102.

2. Mahmoudi A., Fazli M., Morad M.R., A recent review of waste heat recovery by Organic Rankine Cycle. Appl. Therm. Eng., 2018, 143, 660–675.

3. Mehrjardi S.A.A., Khademi A., Fazli M., Optimization of a thermal energy storage system enhanced with fins using generative adversarial networks method. Therm. Sci. Eng. Prog., 2024, 49, 102471.

4. Mahmoudi A., Fazli M., Morad M.R., Gholamalizadeh E., Thermo-hydraulic performance enhancement of nanofluid-based linear solar receiver tubes with forward perforated ring steps and triangular cross section: A numerical investigation. Appl. Therm. Eng., 2020, 169, 114909.

5. Fazli M., Mehrjardi S.A.A., Mahmoudi A., Khademi A., Amini M., Advancements in pulsating heat pipes: Exploring channel geometry and characteristics for enhanced thermal performance. Int. J. Thermofluids, 2024, 22, 100644.

Mahyar Fazli’s work advances next-generation thermal and energy systems by developing high-efficiency thermoacoustic, heat-transfer, and waste-heat-recovery technologies that address global sustainability challenges. His research contributes to cleaner energy futures by improving cooling systems. Through innovative modeling, design, and interdisciplinary collaboration, he drives scientific progress toward more efficient and environmentally responsible energy systems worldwide.

Lesiba George Mollo | Building Energy Efficiency | Best Researcher Award

Dr. Lesiba George Mollo | Building Energy Efficiency | Best Researcher Award

Senior Lecturer | Central University of Technology | South Africa

Dr. Lesiba George Mollo is a Senior Lecturer in the Department of Built Environment at the Central University of Technology, Free State, South Africa, specializing in construction management and construction health and safety. He holds a PhD in Construction Management from Nelson Mandela University, where his research focused on reducing human failures in construction through the Training-Within-Industry (TWI) method. He also earned an MTech in Quantity Surveying (Cum Laude), a BTech in Quantity Surveying, and a National Diploma in Building, complemented by professional certifications in project and safety management. Dr. Mollo’s professional journey spans academic leadership as Acting Head of Department, Deputy Research Dean, and Research Chair, as well as practical roles with leading construction firms managing infrastructure, housing, and public works projects. His research expertise encompasses construction safety management, wearable sensing devices, 360° video technology for behavioral monitoring, and energy-efficient building technologies. He has published over forty scholarly outputs, including peer-reviewed journal articles, book chapters, and the authored volume Training-Within-Industry Job Programs for Improved Construction Safety (Routledge). Dr. Mollo actively contributes to academic development through postgraduate supervision, conference organization, and peer reviewing for international journals. He has received recognition for academic excellence, including the MTech Best Performance Award from Nelson Mandela University, and holds memberships in the South African Council for the Project and Construction Management Professions (SACPCMP) and the Association of South African Quantity Surveyors (ASAQS). He has 35 citations, 14 publications, and an h-index of 3.

Featured Publications

1. Mollo, L. G. (2025). Evaluating the use of 360° video technology to monitor workers’ unsafe behaviour in the construction industry. In International Civil Engineering and Architecture Conference (pp. 685–693). Springer Nature Singapore.

2. Mollo, L. G., & Chomey, T. (2025). An analysis of barriers to the implementation of energy-efficient technologies in residential buildings: A quantitative approach. Buildings, 15(19), 3520.

3. Mtetwa, S. I., Mollo, L. G., & Emuze, F. (2024). Wearable sensing devices for better monitoring of health, safety, and wellbeing in construction. In Handbook of Drivers of Continuous Improvement in Construction Health, Safety, and Wellbeing (pp. 59–68). Routledge.

4. Mollo, L. G. (2024). Using wearable technologies to minimise occupational illnesses among construction workers. Proceedings of the Institution of Civil Engineers – Forensic Engineering, 177(2), 64–71.

5. Mollo, L. G., Emuze, F., & Smallwood, J. (2023). Causes of human failure on construction sites. In Training-Within-Industry Job Programs for Improved Construction Safety (pp. 13–27). Routledge.