Niklas Scholliers | Environmental Impact of Energy Projects | Research Excellence Award

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Mr. Niklas Scholliers | Environmental Impact of Energy Projects | Research Excellence Award

Technical University of Darmstadt | Germany

Niklas Scholliers is a researcher at Technische Universität Darmstadt, Germany, specializing in subsurface energy systems and sustainable geothermal technologies. His primary research areas include aquifer thermal energy storage (ATES), groundwater flow dynamics, renewable heating and cooling solutions, and the integration of geothermal systems into low-carbon energy infrastructures. Dr. Scholliers has authored 4 peer-reviewed scientific publications indexed in Scopus, which have collectively received 45 citations, reflecting the relevance and growing impact of his work (h-index: 3). His publications include contributions to high-impact, open-access journals such as Energies, addressing practical and theoretical challenges in managing high groundwater velocities in ATES systems.

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Featured Publications

Jesper Pedersen | Environmental Impact of Energy Projects | Best Innovator Award

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Mr. Jesper Pedersen | Environmental Impact of Energy Projects | Best Innovator Award

CEO-Founder | JP Clima Tec | Denmark

Mr. Jesper Pedersen is an innovator focused on advancing climate-cooling technologies through engineered atmospheric humidification and adiabatic cooling systems designed to counteract the planet’s rising radiative forcing. His research centers on developing and optimizing large-scale water-mist evaporator units capable of generating low-altitude fog to increase Earth’s albedo and achieve measurable temperature reductions. Drawing from principles of atmospheric physics, thermodynamics, and hydrological cycling, his work demonstrates how controlled humidification—via modified fog-cannon evaporators mounted on wind turbines—can convert latent heat of vaporization into a cooling mechanism that lowers ambient temperatures while enhancing radiative heat loss to space. His computational fluid dynamics (CFD) simulations, Mollier-diagram analyses, and field experiments explore the relationship between relative humidity, dew point, wet-bulb temperature, and cloud-formation height to validate the cooling efficiency of water-evaporative systems. Pedersen’s research further investigates the potential of large-scale deployment, projecting that covering approximately 1% of Earth’s surface with engineered low-altitude fog could offset the current global warming rate of 3.5 W/m². He also evaluates environmental impacts, infrastructure requirements, and the comparative sustainability of this solar radiation modification (SRM) concept relative to other geoengineering approaches such as marine cloud brightening. His patented evaporator-cannon design incorporates wide-angle fog dispersion, wind-aligned turbine integration, and rainwater-based supply systems aimed at enabling scalable atmospheric cooling in diverse climatic zones, including Arctic, tropical, and temperate regions. Through ongoing research collaborations, experimental testing, and prototype development, his work contributes to emerging solutions for global temperature stabilization, forest-fire prevention, reforestation support, and mitigation of climate-driven ecological tipping points.

Profile: ORCID 

Featured Publications

Dragana Marinković | Renewable Energy Systems | Women Researcher Award

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Dr. Dragana Marinković | Renewable Energy Systems | Women Researcher Award

Principal Research Fellow | Vinča Institute of Nuclear Sciences | Serbia

Dr. Dragana Marinković is a distinguished Principal Research Fellow at the Vinča Institute of Nuclear Sciences, University of Belgrade, recognized for her extensive contributions to nanomaterials science and their interdisciplinary applications. Her research focuses on advanced synthesis methods for nanomaterials in powder, colloidal, and thin-film forms, along with innovative approaches for their functionalization and coating. She has played a key role in developing next-generation photocatalysts for improved water splitting and environmental remediation, while also advancing nanomaterials used in photocatalysis, adsorption, pigmentation, biosensing, photothermal therapy, antimicrobial systems, biomarkers, scintillation, bioimaging, and optoelectronic technologies. Her scientific leadership is demonstrated through major nationally funded research programs in new materials and nanosciences, complemented by active involvement in international collaborations including HORIZON Europe, HORIZON 2020, and multiple COST Actions, where she has served in significant coordination roles. Participation in bilateral projects and Short-Term Scientific Missions across leading European institutions has further strengthened her contributions to luminescent nanomaterials, upconversion technologies, and advanced carbon-based nanostructures. A prolific scholar, she has authored 73 SCI-indexed publications, eight book chapters, and a scientific monograph, with her work widely referenced across materials science, environmental technologies, clean energy, and biomedical innovation. Her research continues to generate substantial societal impact in environmental protection, sustainable technologies, healthcare applications, and advanced photonics. Dr. Marinković’s academic influence and research excellence are reflected in her strong metrics 3,123 citations, 69 documents, and an h-index of 30, underscoring her sustained contributions to global scientific advancement.

Profiles: Google Scholar | Scopus | ORCID | ResearchGate

Featured Publications

1. Marinković, D., Righini, G. C., & Ferrari, M. (2025). Synthesis, optical, and photocatalytic properties of the BiVO₄ semiconductor nanoparticles with tetragonal zircon-type structure. Photonics, 12(5), 438.

2. Marinković, D., Righini, G. C., & Ferrari, M. (2025). Advances in synthesis and applications of bismuth vanadate-based structures. Inorganics, 13(8), 268.

3. Marković, Z., Dorontić, S., Jovanović, S., Kovač, J., Milivojević, D., Marinković, D., Mojsin, M., & Todorović Marković, B. (2024). Biocompatible carbon dots/polyurethane composites as potential agents for combating bacterial biofilms: N-doped carbon quantum dots/polyurethane and gamma ray-modified graphene quantum dots/polyurethane composites. Pharmaceutics, 16(12), 1565.

4. Vasiljević, B. R., Prekodravac, J. R., Ranđelović, M. S., Mitrović, J. Z., Bojić, A. Lj., Porobić Katnić, S., Momčilović, M. Z., & Marinković, D. (2024). Enhanced thermal stability and excellent electrochemical and photocatalytic performance of needle-like form of zinc-phthalocyanine. Ceramics International.

5. Vasiljević, B. R., Odobaša, D., Vujičić, I., Filimonović, M. B., Smits, K., Mijin, D., & Marinković, D. (2024). Sustainable and fast synthesis of zinc-phthalocyanine for gamma radiation dosimeter application. Radiation Physics and Chemistry, 211, 111816.

Dr. Dragana Marinković’s work advances the frontiers of nanomaterials science through innovative synthesis strategies and multifunctional applications that address critical challenges in clean energy, environmental protection, and biomedical technology. Her research accelerates the development of next-generation photocatalysts, sensors, and therapeutic platforms, driving scientific innovation with tangible societal and industrial impact.

Masood Ebrahimi | Renewable Energy Systems | Editorial Board Member

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Assoc. Prof. Dr. Masood Ebrahimi | Renewable Energy Systems | Editorial Board Member

Faculty member | University of Kurdistan | Iran

Dr. Masood Ebrahimi is an Associate Professor of Mechanical Engineering at the University of Kurdistan, specializing in renewable and hybrid energy systems aimed at achieving a sustainable transition to Net Zero Emissions by 2050. His research integrates solar, wind, and hydropower technologies with fuel cells, electrolyzers, thermoelectric materials, and advanced energy management systems to produce clean power, hydrogen, desalinated water, and efficient heating/cooling solutions. He applies multi-criteria decision-making algorithms and AI-driven predictive models to optimize energy systems across technical, economic, and environmental dimensions. Dr. Ebrahimi obtained his Ph.D. in Mechanical Engineering–Energy Conversion from K. N. Toosi University of Technology, where he developed a pioneering model for solar-based combined cooling, heating, and power (CCHP) systems across diverse climatic zones, leading to publications in prestigious Q1 journals such as Energy, Energy and Buildings, and the Journal of Cleaner Production, along with an Elsevier book titled Combined Cooling Heating and Power: Decision-Making, Design, and Optimization. With extensive academic and professional experience, he has made significant contributions to sustainable energy development, AI-based energy optimization, and industry-academia collaborations, serving in key leadership roles including Director of the Mechanical Engineering Department, Founder of the Energy Systems Laboratory, and member of several national technical and green management committees. His international collaboration with Dublin City University (Ireland) on the Life Cycle Assessment and Carbon Footprint of Bitcoin Mining using Trigeneration Systems advances the understanding of environmental impacts in emerging technologies. Dr. Ebrahimi’s prolific academic output encompasses numerous peer-reviewed journal articles, books, and conference papers, emphasizing practical and policy-oriented solutions for global clean energy transitions. His academic excellence and research influence are reflected in his growing recognition, with 1,053 citations, 33 publications, and an h-index of 16, underscoring his impactful contributions to renewable energy systems and sustainable technological innovation.

Profiles: Google Scholar | Scopus | ORCID | ResearchGate| LinkedIn

Featured Publications

1. Ebrahimi, M., & Moradpoor, I. (2016). Combined solid oxide fuel cell, micro-gas turbine and organic Rankine cycle for power generation (SOFC–MGT–ORC). Energy Conversion and Management, 116, 120–133. Cited by: 186

2. Ebrahimi, M., & Keshavarz, A. (2014). Combined cooling, heating and power: Decision-making, design and optimization. Elsevier.
Cited by: 160

3. Ebrahimi, M., & Keshavarz, A. (2013). Sizing the prime mover of a residential micro-combined cooling, heating and power (CCHP) system by multi-criteria sizing method for different climates. Energy, 54, 291–301. Cited by: 147

4. Ebrahimi, M., Keshavarz, A., & Jamali, A. (2012). Energy and exergy analyses of a micro-steam CCHP cycle for a residential building. Energy and Buildings, 45, 202–210. Cited by: 122

5. Ebrahimi, M., & Derakhshan, E. (2018). Design and evaluation of a micro combined cooling, heating, and power system based on polymer exchange membrane fuel cell and thermoelectric cooler. Energy Conversion and Management, 171, 507–517. Cited by: 84

Dr. Masood Ebrahimi’s pioneering research in renewable and hybrid energy systems advances sustainable technologies that drive the global transition toward Net Zero Emissions. His innovative integration of AI, fuel cells, and solar-driven CCHP systems supports cleaner industries, energy efficiency, and a more resilient low-carbon future for society.