Rajeshreebhye Mahadea Nemdharry | Environmental effects | Research Excellence Award

Rajeshreebhye Mahadea Nemdharry | Environmental effects | Research Excellence Award

Mrs. Rajeshreebhye Mahadea Nemdharry at Mauritius Sugarcane Industry Research Institute (MSIRI) | Mauritius

Rajeshreebhye Mahadea-Nemdharry is a researcher affiliated with the Mauritius Cane Industry Authority, Reduit, Mauritius, with a growing scholarly presence in geospatial and land-use studies relevant to sustainable development. According to Scopus records, she has authored two research documents and currently holds an h-index of 1, with one citation received from a single citing document. Her 2025 publication in Spatial Information Research, titled “Development implications of land cover change in Mauritius: a multi-temporal geospatial analysis of sugarcane contraction and built-up area expansion,” provides a focused and policy-relevant examination of land-cover dynamics in Mauritius. The study employs multi-temporal geospatial analysis to investigate the contraction of sugarcane cultivation alongside the expansion of built-up areas, highlighting how economic development, urbanization, and changing land-use priorities are reshaping the island’s traditional agricultural landscape. By integrating spatial data across time, the research offers insights into the environmental, economic, and developmental consequences of declining sugarcane areas, a sector historically central to Mauritius’ economy. The findings underscore the need for balanced land-use planning that supports urban growth while safeguarding agricultural sustainability and environmental integrity. Overall, Mahadea-Nemdharry’s work contributes valuable evidence for policymakers, planners, and researchers concerned with land-use change, agricultural transformation, and sustainable development in small island contexts such as Mauritius.

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Featured Publications

Xudong Hu | Environmental | Best Researcher Award

Xudong Hu | Environmental | Best Researcher Award

Dr. Xudong Hu , Henan University , China.

Dr. Xudong Hu is a passionate researcher dedicated to advancing sustainable technologies for hydrogen production, water treatment, and environmental remediation 💧🔬. With a Bachelor’s degree from Liaoning Technical University 🎓 and currently pursuing his Master’s at Henan University 🎓, he has contributed significantly to catalyst design and pollutant degradation 🧪🌍. As the first or co-first author of multiple high-impact publications 📚, Xudong blends computational and experimental methods to tackle environmental challenges. His pioneering work has received attention in journals like Angewandte Chemie and International Journal of Hydrogen Energy 🌟. He’s driven by innovation, collaboration, and scientific impact 🚀.

Publication Profile

Scopus

Education & Experience

🎓 Bachelor of Science – Liaoning Technical University (2019.09 ~ 2023.06)
📘 Master of Science (Ongoing) – Henan University (2023.09 ~ 2026.09)


🔬 Research Experience
  • Hydrogen production via advanced catalysis ⚡

  • Photocatalytic degradation of persistent organic pollutants ☢️

  • Peracetic acid activation and water purification 💦

  • Multifunctional electrocatalyst design and optimization ⚙️

  • Industrial wastewater treatment and recycling 🔁

Suitability Summary

Xudong Hu is a highly deserving candidate for the Best Researcher Award 🏅, given his outstanding contributions to sustainable energy technologies and environmental remediation through advanced catalyst development and water treatment innovation 🌱⚙️. As a dynamic young scientist from China 🇨🇳, currently pursuing his M.Sc. at Henan University and holding a B.Sc. from Liaoning Technical University, Xudong has already made a profound impact on the scientific community through first-author and co-first-author publications in high-impact journals such as Angewandte Chemie, International Journal of Hydrogen Energy, and Chemical Engineering Science 📚🌍.

Professional Development 

Xudong Hu continuously strives to sharpen his research skills through interdisciplinary exploration and collaboration 🤝. He integrates theory-guided design 🧠 with experimental validation 🔬, exploring diatomic site catalysts, heterostructures, and electron transport enhancement in environmental systems 🌐. By publishing in globally recognized journals 📖 and contributing as a corresponding author ✍️, he demonstrates strong leadership and scientific communication skills. His focus on clean energy, sustainable development, and advanced catalysis keeps him aligned with global environmental goals 🌱🌍. Actively attending conferences, workshops, and forums keeps him updated with cutting-edge innovations in chemical and environmental engineering 🧪💼.

Research Focus 

Xudong Hu’s research primarily targets clean energy and environmental remediation 🌎⚡. His focus spans hydrogen production via seawater electrolysis, photocatalytic degradation of persistent pollutants, and electrocatalyst design for water treatment 💧⚙️. He is deeply engaged in atomic-level catalysis, heterostructure synergy, and peracetic acid activation to address pressing environmental issues through smart chemical solutions 🔍🧪. By combining computational simulations with experimental validation 🖥️🔬, Xudong contributes novel insights to the field of green chemistry and sustainable energy technologies. His work reflects a multidisciplinary approach, merging materials science, chemistry, and environmental engineering to develop practical, scalable solutions ♻️🔋.

Awards & Honors 

🏆 First Author & Corresponding AuthorAngewandte Chemie, 2025
📘 First AuthorInternational Journal of Hydrogen Energy, 2024
🥇 Co-First AuthorChemical Engineering Science, 2025
🌟 Recognition for Innovation in Environmental Catalysis
🎖️ Contributions to Advanced Electrocatalytic Systems for Water Purification

Publication Top Notes

1️⃣ “Theory-guided Design of Surface-Enhanced Ni-Mn Diatomic Site Catalysts for Efficient Seawater Electrolysis via the Degradation of High Ionization Potential Organic Pollutants”Angewandte Chemie, 📅 2025 | 🖋️ First & Corresponding Author | 📚 Cited by: 1 | 🔗 DOI 🌊⚡🔬

2️⃣ “Atomic catalysis meets heterostructure synergy: Unveiling the trifunctional efficacy of transitionMetal@WS2/ReSe2”International Journal of Hydrogen Energy, 📅 2024 | 🖋️ First Author | 📚 Cited by: 1 | 🔗 DOI ⚛️💡🔋

3️⃣ “Fe-Enriched electron transport in CuFeS2 Catalyzed peracetic acid for efficient dipyrone Degradation: Computational and experimental Insights”Chemical Engineering Science, 📅 2025 | 🖋️ Co-First Author | 📚 Cited by: 1 | 🔗 DOI 🧪🧠💧

Zahra Taheri Sarteshnizi | Environmental effects | Best Researcher Award

Dr.Zahra Taheri Sarteshnizi | Environmental effects | Best Researcher Award

member of Dr. Farid’s research team at Boise State University, Iran

Dr. Zahra Taheri Sarteshnizi is a highly accomplished researcher and academic in the field of Water Engineering and Sciences, with a Ph.D. focused on Hydraulic Structures. Her research interests span various areas, including the erosion of cohesive beds by fluid flow, machine learning applications in environmental engineering, and the transport of organic chemicals and PFAS in sediment. Dr. Taheri Sarteshnizi has extensive teaching experience at multiple universities, covering a wide range of civil engineering subjects such as fluid mechanics, soil mechanics, and hydraulic design. Proficient in Python, GIS, MATLAB, and R, she has applied her skills to impactful research projects, including studies on wastewater effects on sediment properties and soil stabilization. With a solid academic background, an interdisciplinary approach to research, and a growing professional network, she is a promising candidate for recognition as a top researcher in her field.

professional profile

Education

Dr. Zahra Taheri Sarteshnizi holds a Ph.D. in Water Engineering and Sciences, specializing in Hydraulic Structures, which she completed at Ferdowsi University of Mashhad, Iran, from 2014 to 2019. Her doctoral research focused on the impact of mixing urban refined wastewater and sediment flow on erosion threshold shear stress in water transmission networks. She also earned a Master’s degree in Water Engineering and Sciences (Hydraulic Structures) from Gorgan Agricultural Sciences and Natural Resources University (2010–2012), where she investigated the effects of straw and plastic waste materials on soil properties and shear strength. Dr. Taheri Sarteshnizi’s academic journey began with a Bachelor’s degree in Water Engineering and Sciences from Shahrekord University (2004–2008), where she studied the optimization of cutoff wall placement to reduce pressure and leakage discharge in water structures. Her diverse educational background has laid a strong foundation for her interdisciplinary research and teaching career.

Professional Experience

Dr. Zahra Taheri Sarteshnizi has a robust professional experience that spans both academia and research. From 2017 to 2023, she served as an Adjunct Professor at Azad University of Shahrekord, where she taught various civil engineering courses, including statics, fluid mechanics, soil mechanics, and hydraulic systems. She also held teaching positions at Azad University of Farsan (2015–2020) and Payame Nour University (2012–2014). In addition to her teaching roles, Dr. Taheri Sarteshnizi has been actively involved in research projects, particularly focusing on hydraulic structures, wastewater impact on sediment properties, and soil stabilization techniques. Her work includes leading research teams and conducting experiments related to erosion and sediment behavior in water systems. Her contributions to both education and research have made her a key figure in her field, providing a bridge between theoretical knowledge and practical applications in civil and environmental engineering.

Research Interest

Dr. Zahra Taheri Sarteshnizi’s research interests are centered around key challenges in environmental and hydraulic engineering, with a particular focus on the erosion of cohesive beds by fluid flow and the impact of wastewater on sediment properties. Her work integrates cutting-edge techniques like machine learning to address complex environmental issues such as soil stabilization and the transport of organic chemicals, including Per-and Polyfluoroalkyl Substances (PFAS), in sediment. Additionally, she is interested in the fate and transport of contaminants in the vadose zone, which plays a critical role in water and soil management. Dr. Taheri Sarteshnizi’s interdisciplinary approach combines traditional hydraulic studies with modern computational tools, aiming to improve the sustainability and resilience of water infrastructure and environmental systems.

Award and Honor

Dr. Zahra Taheri Sarteshnizi has made significant contributions to her field, earning recognition for her research and academic achievements. She has been honored with the Senior Fellow status from the Higher Education Academy in the United Kingdom, reflecting her commitment to excellence in higher education. Additionally, Dr. Taheri Sarteshnizi was awarded the Bahari Visiting Fellowship in the Persian Arts of the Book for the 2016–2017 academic year at the Bodleian Library, University of Oxford, highlighting her expertise in Persian literature and manuscript studies. Her research has been cited 148 times, indicating the impact and relevance of her work in the academic community.

Conclusion

Zahra Taheri Sarteshnizi has demonstrated exceptional expertise and dedication to her field through her academic achievements, interdisciplinary research interests, and teaching experience. She is well-qualified for the Best Researcher Award, particularly due to her ability to apply technical solutions to environmental challenges. By focusing on expanding her research output, building international collaborations, and increasing her public engagement, Zahra could further enhance her standing as a top-tier researcher in her field.

Publications Top Noted

  • Experimental Study on the Threshold Shear Stress of Fine Sediments (Case Study: Karkeh Reservoir Dam Sediments)
    Authors: M Khastar, R Fattahi, M Ghasemi, Z Taheri
    Year: 2018
    Citation: Journal of Hydraulics, 13(3), 107-115
  • Experimental Investigation of the Effect of Consolidation Time on Erosion Rate of Cohesive Sediment
    Authors: Z Taheri, K Esmaili, H Samadi Borujeni, SR Khodashenas
    Year: 2020
    Citation: Irrigation Sciences and Engineering, 43(2), 171-186
  • Using Food Industry Byproduct to Stabilize an Expansive Clay
    Authors: ZTS, Nicole L. Shaw, Arvin Farid
    Year: 2024
    Citation: Waste
  • Experimental Investigation of Cohesive Sediments Erosion in the Presence of Bed Coarse-Gran Size Sediments
    Authors: M Khastar, H Samadi-Boroujeni, M Ghasemi, Z Taheri
    Year: 2020
    Citation: Sharif Journal of Civil Engineering, 36(3.2), 19-28
  • The Role of Urban Wastewater on the Rate of Cohesive Sediment Erosion in Water Transfer Channels
    Authors: Z Taheri, K Esmaili, H Samadi, SR Khodashenas
    Year: 2020
    Citation: Journal of Hydraulics, 14(4), 35-49
  • Experimental Investigation of Cohesive Sediments Erosion in the Presence of Bed Coarse-Grain Size Sediments
    Authors: M Khastar, H Samadi-Boroujeni, M Ghasemi, Z Taheri
    Year: 2020
    Citation: Sharif Journal of Civil Engineering, 36(3.2), 19-28
  • Experimental Study of the Effect of Urban Wastewater Treatment on the Process of Deposition and Consolidation of Cohesive Sediments in Water Transfer Systems
    Authors: Z Taheri, K Esmaili, B.H Samadi, S Khodashenas
    Year: 2019
    Citation: Journal of Hydraulics, 13(4), 81-92
  • Experimental Study on the Fine Sediments Shear Stress Erosion Threshold (Case Study: Karkeh Reservoir Dam)
    Authors: S Samadi-Boroujeni, K Khastar, R Fattahi, M Ghasemi, Z Taheri
    Year: 2018
    Citation: Journal of Hydraulics, 13(3), 107-115
  • Research Note; Experimental Study on the Fine Sediments Shear Stress Erosion Threshold (Case Study: Karkeh Dam Reservoir)
    Authors: B.H Samadi, B.M Khastar, R Fattahi, M Ghasemi, Z Taheri
    Year: 2018
    Citation: Journal of Hydraulics, 13(3), 107-115