Alima Amangeldi | Climate Change | Research Excellence Award

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Ms. Alima Amangeldi | Climate Change | Research Excellence Award

Ms. Alima Amangeldi | Climate Change | Engineer at Institute of Ionosphere | Kazakhstan

Climate Change research forms the foundation of the scholarly and professional journey of Ms. Alima Amangeldi, an emerging Kazakhstani researcher whose contributions reflect a strong commitment to environmental resilience, cryosphere monitoring, and long-term hydro-climatic analysis. Ms. Alima Amangeldi is recognized for her intellectual dedication to understanding glacial dynamics and climate-driven transformations across mountainous regions, with a special focus on the Ile-Alatau Mountains within the Northern Tien Shan. Her academic background is rooted in rigorous scientific training in environmental science, Earth observation, and atmospheric studies, equipping her with a deep understanding of hydrology, remote sensing technologies, and climate processes that shape contemporary environmental challenges. Through her education, Ms. Alima Amangeldi developed expertise in satellite imagery interpretation, GIS-based glacier mapping, and the multi-temporal analysis of glacial and moraine lake changes that are vital for predicting natural hazards and informing adaptation strategies. Professionally, she serves at the Institute of Ionosphere in Almaty, Kazakhstan (2024–present), where she contributes to advanced research on atmospheric interactions, hydro-climatic variability, and geospatial environmental assessments. Her role involves conducting multi-temporal remote sensing studies, applying high-resolution climatic datasets, and collaborating with multidisciplinary experts to deepen insights into mountain cryosphere evolution and its broader regional implications. The professional experience of Ms. Alima Amangeldi is marked by her capacity to integrate field observations, satellite-based analytics, and climate modeling, which positions her as a promising researcher in climate science and natural resource management. Her research interests span climate change impacts on glacier recession, moraine lake expansion, hydro-climatic risk assessments, cryosphere monitoring, atmospheric variation analysis, and remote sensing applications in mountainous environments. In her work, Ms. Alima Amangeldi frequently employs advanced research skills such as geospatial analytics, LiDAR interpretation, multi-decadal climate data synthesis, hydrological modeling, and environmental trend analysis. She is proficient in utilizing tools like ArcGIS, QGIS, Google Earth Engine, ERDAS Imagine, and statistical packages used for climatic trend evaluation. Her analytical skills are further supported by her ability to interpret long-term climate indicators and correlate them with environmental shifts across sensitive alpine ecosystems. Although early in her academic trajectory, Ms. Alima Amangeldi has begun building an impactful scholarly presence, evidenced by her authorship of peer-reviewed scientific work focusing on long-term glacier and lake evolution from 1955–2024, informing early-warning systems, hazard prevention measures, and sustainable water resource planning. Her dedication to scientific rigor and environmental protection has earned her recognition as a promising contributor to Kazakhstan’s climate research community, and she is increasingly acknowledged within international research circles addressing cryosphere change and climate-induced mountain hazards. Awards and honors attributed to her include early-career recognition at institutional and departmental levels for excellence in scientific research and contributions to climate-related geospatial studies. Throughout her career progression, Ms. Alima Amangeldi continues to commit herself to advancing the scientific understanding of climate change impacts, strengthening the data foundations needed for sustainable policymaking, and contributing meaningful insights to global environmental research dialogues. In conclusion, Ms. Alima Amangeldi exemplifies the next generation of climate and environmental scientists whose research promises to support long-term climatic resilience, inform public awareness, and guide actionable strategies for adapting mountain ecosystems to the realities of a rapidly changing climate.

Academic Profile: ORCID

Featured Publications:

  1. Amangeldi, A. A., Iskaliyeva, G., Merekeyev, A., Sydyk, N., Abishev, B., & Baygurin, Z. (2025). Hydro-Climatic and Multi-Temporal Remote Analysis of Glacier and Moraine Lake Changes in the Ile-Alatau Mountains (1955–2024), Northern Tien Shan. Atmosphere.

 

 

Nizar Ben Ezzine | Energy | Editorial Board Member

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Prof. Nizar Ben Ezzine | Energy | Editorial Board Member

Prof. Nizar Ben Ezzine | Energy | Professor at Carthage University | Tunisia

Prof. Nizar Ben Ezzine is an accomplished scholar in the field of energy engineering, widely recognized for his contributions to thermodynamics, solar cooling technologies, and absorption refrigeration systems, and he has established a strong academic and research identity through his advanced education culminating in a doctoral degree in energetics that laid the foundation for his expertise in thermal sciences and sustainable cooling systems. Throughout his professional journey, Prof. Nizar Ben Ezzine has served in reputable academic and research institutions where he has contributed extensively to teaching, mentoring, scientific collaborations, and the development of cutting-edge research initiatives in the areas of thermodynamic modelling, exergy analysis, and high-efficiency refrigeration cycles. His research interests include solar-driven absorption systems, ammonia–water thermodynamic mixtures, diffusion-absorption refrigeration cycles, sustainable thermal energy solutions, and performance optimisation of environmentally friendly cooling systems, which he explores using advanced numerical modelling, experimental investigations, and multi-parameter optimisation techniques. Prof. Nizar Ben Ezzine demonstrates strong research skills in computational modelling of thermal systems, experimental system testing, simulation of absorption chillers, development of solar-powered cooling technologies, and analytical techniques for evaluating irreversibilities in thermal cycles, supported by an extensive record of publications in Scopus-indexed and high-impact journals. His scholarly outputs include influential articles in journals such as Energy, Renewable Energy, the International Journal of Exergy, and the International Journal of Refrigeration, which collectively reflect his scientific depth and sustained impact. With hundreds of citations, an established h-index, and numerous international co-authorships, he has built a collaborative presence within the global energy research community and contributed to significant international research projects addressing sustainable cooling and thermodynamic optimisation challenges. Prof. Nizar Ben Ezzine has been acknowledged for his academic excellence through various research-based recognitions, invitations to scientific committees, and participation in specialized conferences that highlight his leadership within the thermal and renewable energy sectors. His work continues to influence the design and development of future cooling technologies, and his research trajectory demonstrates strong promise for further innovation in areas such as advanced solar cooling, next-generation refrigerant mixtures, and integrated renewable energy systems. In conclusion, Prof. Nizar Ben Ezzine stands as a leading figure whose scientific contributions, professional experience, collaborative engagements, and commitment to sustainability continue to shape advancements in the global field of energy engineering.

Academic Profile: Google Scholar

Featured Publications:

  1. Ezzine, N. B., Garma, R., & Bellagi, A. (2010). A numerical investigation of a diffusion-absorption refrigeration cycle based on R124-DMAC mixture for solar cooling. Energy, 35(5), 1874–1883. Citations: 108

  2. Ezzine, N. B., Garma, R., Bourouis, M., & Bellagi, A. (2010). Experimental studies on bubble pump operated diffusion absorption machine based on light hydrocarbons for solar cooling. Renewable Energy, 35(2), 464–470. Citations: 83

  3. Ezzine, N. B., Barhoumi, M., Mejbri, K., Chemkhi, S., & Bellagi, A. (2004). Solar cooling with the absorption principle: First and Second Law analysis of an ammonia–water double-generator absorption chiller. Desalination, 168, 137–144. Citations: 61

  4. Mejbri, K., Ezzine, N. B., Guizani, Y., & Bellagi, A. (2006). Discussion of the feasibility of the Einstein refrigeration cycle. International Journal of Refrigeration, 29(1), 60–70. Citations: 27

  5. Barhoumi, M., Snoussi, A., Ben Ezzine, N., Mejbri, K. H., & Bellagi, A. (2004). Modelling of the thermodynamic properties of the ammonia/water mixture. International Journal of Refrigeration, 27(3). Citations: 26

 

Dr. Xiaoyu Lin | Environmental Science | Best Researcher Award

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Dr. Xiaoyu Lin | Environmental Science | Best Researcher Award

Dr. Xiaoyu Lin | Environmental Science – Huazhong University of Science and Technology, China

Dr. Xiaoyu Lin is an accomplished researcher affiliated with Jeonbuk National University in South Korea, known for her interdisciplinary work at the intersection of materials science, environmental chemistry, and computational modeling. Her scientific output, reflected in 18 peer-reviewed publications and an h-index of 11, has attracted 284 citations across 228 academic documents, indicating a growing influence in her field. With a firm grounding in theoretical and applied research methodologies, Dr. Lin continuously explores innovative ways to solve pressing industrial and ecological challenges, particularly in the area of sustainable material design and resource recovery.

Profile:

Scopus

Education:

Dr. Lin’s educational background is firmly rooted in scientific inquiry and advanced research. She completed her doctoral-level education with a focus on the application of density functional theory (DFT) to design environmentally responsive materials. Her academic training provided a strong foundation in physical chemistry, polymer science, and environmental remediation, equipping her with both theoretical expertise and practical laboratory skills essential to the development of advanced functional materials.

Experience:

Professionally, Dr. Lin is based at Jeonbuk National University, where she plays an active role in research and academic collaboration. Her experience includes significant contributions to both individual and group research projects, showcasing her capabilities in multidisciplinary teamwork and scientific communication. She has authored and co-authored numerous high-impact papers, collaborating with researchers across multiple countries and disciplines. Through this work, she has helped shape experimental designs, conduct theoretical modeling, and produce valuable findings for publication.

Research Interests:

Dr. Lin’s research interests span computational materials science, bio-based adsorbents, environmental sustainability, and metal ion recovery. She is particularly passionate about combining DFT simulations with experimental synthesis to develop materials capable of selective ion adsorption, pH responsiveness, and environmental remediation. Her focus on sustainable solutions and circular economy principles drives her investigations into chitosan-based biopolymers, eco-friendly adsorbents, and advanced modeling techniques for wastewater treatment and heavy metal removal.

Awards:

While Dr. Lin has not yet received formal individual awards, her rising academic profile and publication impact suggest she is on a clear trajectory toward national and international recognition. Her growing number of citations, scholarly collaborations, and recent involvement in high-impact research projects reflect the respect she commands within the research community and signal her readiness for future distinctions such as the Best Researcher Award.

Publications:

Below are seven of Dr. Lin’s most relevant publications, highlighting both academic contribution and citation performance:

  • 🧪 “DFT-guided structural design of functionalized chitosan for selective Ag(I) recovery across a broad pH range”, Separation and Purification Technology, 2025 – cited by 0 articles.
  • 🌱 “Selective removal of Pb(II) using cross-linked chitosan derivatives: Adsorption behavior and DFT insights”, Chemical Engineering Journal, 2024 – cited by 12 articles.
  • ⚙️ “Computational screening of bio-polymers for heavy metal remediation: A DFT-based approach”, Journal of Hazardous Materials, 2023 – cited by 18 articles.
  • 🌊 “pH-responsive chitosan composites for wastewater treatment: Synthesis, characterization and modeling”, Environmental Science and Pollution Research, 2023 – cited by 15 articles.
  • 🔬 “Eco-friendly synthesis of chitosan beads for Cr(VI) removal: Experimental and theoretical synergy”, Carbohydrate Polymers, 2022 – cited by 20 articles.
  • 🧬 “Metal ion recognition by modified polysaccharides: A DFT and FTIR combined study”, Materials Chemistry and Physics, 2022 – cited by 14 articles.
  • 💧 “Biopolymer-based systems for Cu(II) adsorption: Modeling and application perspectives”, Journal of Molecular Liquids, 2021 – cited by 13 articles.

Conclusion:

In conclusion, Dr. Xiaoyu Lin has built an impressive academic profile through impactful research, interdisciplinary collaboration, and a commitment to sustainable innovation. Her publications demonstrate a mastery of both theoretical modeling and experimental application, and her growing citation record indicates strong peer recognition. As an emerging leader in the field of materials for environmental applications, she represents an outstanding candidate for the Best Researcher Award. With further opportunities for research funding and leadership, she is well-positioned to make long-lasting contributions to science and society.