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Journal of Emerging Science and Engineering
Published by CBIORE Scientia Academy
ISSN : 30260817     EISSN : 30260183     DOI : https://doi.org/10.61435/jese.xxx.xxx
Core Subject : Social, Engineering,
Engineering Environmental Science
Journal of Emerging Science and Engineering (JESE) is peer-reviewed, and it is devoted to a wide range of subfields in the engineering sciences. JESE publishes two issues of rigorous and original contributions in the Science and Engineering disciplines such as Biological Sciences, Chemistry, Earth Sciences, and Physics, Chemical, Civil, Computer Science and Engineering, Electrical, Mechanical, Petroleum , and Systems Engineering.. JESE publishes original research papers, reviews, short communications, expository articles, and reports. Manuscripts must be submitted in the English language and authors must ensure that the article has not been published or submitted for publication elsewhere in any format, and that there are no ethical concerns with the contents or data collection. The authors warrant that the information submitted is not redundant and respects general guidelines of ethics in publishing. All papers are evaluated by at least two international referees, who are known scholars in their fields. We encourage and request all academics and practitioners in the field of science and engineering to send their valuable works and participate in this journal.
Arjuna Subject : Teknik (semua kategori) - Teknik (Lain-Lain)
Articles 5 Documents
 1 
Search results for , issue "vol. 4 no. 2 (2026)" : 5 Documents clear
Research status and development trends of wind-induced vibration technology for photovoltaic support systems Jiashun Hu; Wenhua Li; Tao Sun; Mingjie Shi; Fan Yang
Journal of Emerging Science and Engineering Vol. 4 No. 2 (2026)
Publisher : BIORE Scientia Academy

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.61435/jese.2026.e65

Abstract

Against the backdrop of global energy transition, photovoltaic (PV) power generation has witnessed rapid expansion, with China’s newly installed capacity in 2024 accounting for 52.4% of global additions. However, PV support systems face significant wind-induced vibration challenges in complex scenarios. This study systematically reviews advances in wind-induced vibration mitigation technologies for PV supports. First, structural characteristics and failure mechanisms are analyzed for fixed-axis, single-/dual-axis tracking, cable-suspended flexible, and offshore PV support systems. Second, synergistic applications of wind tunnel tests, numerical simulations, and field monitoring are reviewed to reveal nonlinear dynamic mechanisms such as vortex-induced vibration (VIV) and flutter. Third, many important dominant factors, such as aerodynamic parameters, geometric parameters, structural parameters, topographic effects are analyzed in detail. And design strategies such as prestress optimization, damping enhancement, and stiffness assignment are used to mitigate wind-induced vibration response in practice. Current challenges are discussed including unclear dynamic aeroelastic coupling mechanisms, insufficient scaling model similarity, and lack of standards for diverse scenarios. In future, developing high-fidelity multi-physical models, intelligent vibration suppression technologies, and cross-disciplinary frameworks will be emphasized to enhance system robustness and cost-effectiveness under extreme climates, supporting the global scaling of PV deployment.
Experimental assessment of domestic biogas production from organic waste through anaerobic digestion in Chad Abdelhamid Issa Hassane; Bill Vaneck Bôt; Fatimé Nadji Gisele; Doussi Howe Olivier; Ruben Mouangue
Journal of Emerging Science and Engineering Vol. 4 No. 2 (2026)
Publisher : BIORE Scientia Academy

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.61435/jese.2026.e69

Abstract

Environmental degradation and health concerns. In this context, the valorisation of organic waste through anaerobic digestion represents a promising alternative for sustainable household energy production. This study presents an experimental assessment of domestic biogas production from organic waste under local conditions in Chad. A pilot-scale anaerobic digestion system was designed and operated for a period of 30 days. The digester was fed with a mixture of vegetable organic waste and fresh cow dung used as inoculum. Key operational parameters, including temperature and pH, were regularly monitored throughout the digestion process. The system was designed to meet the cooking energy needs of a household of eight persons, and the technical feasibility of biogas production was evaluated. The experimental results showed that biogas production started from the tenth day of fermentation and increased progressively with the hydraulic retention time. The pH remained within a range favourable to methanogenic activity, while temperature variations were compatible with mesophilic digestion conditions. The observed biogas production confirmed the methanogenic potential of the selected organic substrates and demonstrated the suitability of the proposed low-cost digester for domestic energy applications. Biogas volume increases with daily feeding (1/60 of the useful volume) and a retention time of 30 days, reaching a maximum volume of 1,2 m³. This can reduce daily consumption by approximately 0,2 m³ of butane, 1,24 kg of charcoal, and 2,5 kg of firewood.The findings indicate that anaerobic digestion of household organic waste can contribute to sustainable energy supply, waste management improvement and reduction of pressure on forest resources in Chad. This study provides practical evidence supporting the deployment of small-scale biogas systems in similar socio-economic contexts.
Building institutional resilience to AI-driven misinformation in critical infrastructure: Evidence from the Albanian energy sector Eva Hyna
Journal of Emerging Science and Engineering Vol. 4 No. 2 (2026)
Publisher : BIORE Scientia Academy

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.61435/jese.2026.e66

Abstract

The rapid expansion of generative artificial intelligence has significantly transformed digital information environments, increasing the volume, velocity, and technical sophistication of misinformation affecting critical infrastructure systems. In the energy sector, such disruptions pose measurable risks to regulatory reliability, infrastructure investment, and operational stability, particularly in countries undergoing energy transition and digital modernization. Albania’s developing energy ecosystem provides a relevant empirical context for examining these emerging system-level vulnerabilities. This study analyzes the integration of Business Intelligence (BI), Competitive Intelligence (CI), and AI-based detection systems in strengthening institutional resilience against AI-generated misinformation. A qualitative-dominant mixed-methods case study approach is employed, combining large-scale digital media monitoring, intelligence-cycle modeling, and expert-based validation. The research focuses on a coordinated disinformation campaign targeting the Qeparo Solar Farm project in 2025, using temporal network analysis, content classification, and attribution mapping to evaluate diffusion dynamics and institutional response mechanisms. Results indicate that misinformation propagation followed structured temporal patterns, emotionally optimized framing strategies, and coordinated amplification networks consistent with organized influence operations. Early anomaly detection was achieved through hybrid analytical systems integrating automated machine learning tools with professional assessment. Competitive Intelligence analysis supported probabilistic attribution and risk prioritization, while coordinated governance responses enabled rapid system stabilization and restoration of stakeholder confidence. The study proposes an applied governance-oriented resilience framework integrating BI, CI, and AI detection within a unified institutional monitoring architecture. The findings demonstrate that effective protection of critical infrastructure information systems depends primarily on institutional system design, operational coordination, and analytical capacity, rather than technological deployment alone. This research provides practical guidance for regulators, engineers, and infrastructure managers seeking to enhance digital security, information integrity, and system reliability in AI-driven operational environments
Research Progress and Development Trends in Photovoltaic Desertification Control and Photovoltaic Dust Removal Technologies Tao Sun; Jiashun Hu; Wenhua Li; Lingbo Gao
Journal of Emerging Science and Engineering Vol. 4 No. 2 (2026)
Publisher : BIORE Scientia Academy

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.61435/jese.2026.e74

Abstract

Against the backdrop of the global energy transition, photovoltaic (PV) power generation has expanded rapidly worldwide. In China, the integration of photovoltaic systems with desertification control has generated substantial environmental and economic benefits, contributing simultaneously to renewable energy development and ecological restoration. However, severe dust accumulation on PV installations in desert regions significantly reduces power generation efficiency, increases maintenance costs, and shortens system lifespan, creating major operational and environmental challenges. Consequently, there is an urgent need to develop efficient and sustainable dust removal technologies that can improve power generation efficiency, conserve scarce water resources, and minimize environmental impacts in desert environments. This study systematically reviews recent advances in photovoltaic desertification control and dust mitigation technologies for PV power plants located in deserts, Gobi, and other barren lands. First, the development of PV-based desertification control technologies is reviewed, and their environmental and ecological achievements are summarized. Second, the mechanisms of dust accumulation and their impacts on PV performance are examined, with particular emphasis on the influence of environmental factors such as wind speed, humidity, dust characteristics, and panel tilt angle. Third, existing dust removal technologies—including robotic and mechanical cleaning systems, as well as coating-based and non-contact cleaning technologies—are comprehensively reviewed and critically discussed. Finally, future research directions and technological trends in PV desertification control and dust mitigation are presented to support the sustainable development of photovoltaic energy systems and environmental protection. This review provides valuable insights for researchers, engineers, and PV plant operators by improving the understanding of dust accumulation mechanisms in desert photovoltaic systems, evaluating advanced robotic and autonomous cleaning technologies, identifying emerging self-cleaning solutions, and highlighting strategies for enhancing the long-term efficiency, reliability, and sustainability of large-scale desert PV installations.
Establishing robust low-carbon power networks: A structured bibliometric-informed review of energy storage solutions and regulations (2023–2025) Ali F. Ali Fadiel; Ali Osman Büyükköse; Rakesh Choudhary
Journal of Emerging Science and Engineering Vol. 4 No. 2 (2026)
Publisher : BIORE Scientia Academy

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.61435/jese.2026.e75

Abstract

The accelerating penetration of solar photovoltaic and wind generation has increased the need for energy storage systems capable of supporting grid stability, flexibility, adequacy, and resilience. This study presents a structured bibliometric-informed review of energy-storage research and deployment developments during 2023–2025, with attention to short-, medium-, and long-duration technologies, policy, digitalization, and the Middle East and North Africa (MENA). Literature was identified through Scopus, Web of Science, and IEEE Xplore and complemented by authoritative institutional and government reports. The analytical corpus contains 41 dated sources from 2023–2025, supplemented by a small number of earlier or undated contextual sources. Publication-year trends, recurrent citation patterns within the reviewed corpus, thematic concentration, technology performance, cost, discharge duration, and technology readiness were synthesized. The corpus increased from 11 publications in 2023 to 13 in 2024 and 17 in 2025, indicating rising research attention. The evidence shows that lithium-ion/LFP remains dominant for short-duration services, while sodium-ion, flow batteries, LAES, A-CAES, hydrogen, thermal storage, and pumped hydro address increasingly diverse duration and sectoral requirements. The literature is also shifting from technology-specific studies toward hybrid storage, grid-forming capability, circularity, AI-enabled operation, and market design. For MENA systems, portfolio-based solutions appear more appropriate than reliance on a single technology. Robust low-carbon grids therefore require coordinated technological, economic, regulatory, and digital strategies.

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