Sustainable Energy Practices Research Articles

Sustainable energy strategies among small and medium-scale enterprises: The mediating role of business associations

Small and medium-scale enterprises increasingly show greater interest in managing their environmental footprints in response to shifting customer preferences. Beyond the mixed results in the literature exploring environmental concerns from an organisational perspective, questions related to firm strategy and energy efficiency have yet to be definitively determined. This study investigated the mediating role of business associations in the relationship between firm strategy and energy efficiency among small and medium-scale enterprises. Using binary logit regression, data from over 20,000 firms across 39 countries were analysed. Our analysis demonstrates that business strategy positively impacts climate-friendly energy generation, energy management, and energy consumption improvements. Furthermore, business associations were found to significantly mediate these relationships. A comparative analysis revealed some differences across economic regions, with the impact of business strategy being more pronounced in the Middle East and Africa compared to other regions of the world. The present findings suggest that improving small and medium-scale enterprises’ affiliations to business associations is a promising approach to increasing their adoption of sustainable energy practices. The study findings further advance the understanding of the firm strategy-energy efficiency nexus, and have implications for policymaking in environmental performance enhancement.

Sustainable Manufacturing in Industry 4.0: Enhancing Safety and Rapid Response in Industrial Control Systems with Smart Edge IoT Devices

In This research, we delve into the dynamic synergy between sustainable energy and Industry 4.0 within the field of "Energy and Sustainable Engineering." It centers on integrating an emergency email generation system into a robust digitalization framework. The study prioritizes hands-on training, emphasizing practical applications that blend sustainable energy practices with the transformative principles of Industry 4.0. By focusing primarily on the intersection of sustainable energy, the project underscores the crucial role of digitization. This seamless integration aligns with the principles of automation, smart technologies, and the evolving landscape of digitization within industries committed to sustainable energy practices. The primary objective in this experiment is to integrate Industrial IoT into the realm of smart manufacturing, effectively incorporating our system into the framework of Industry 4.0, while prioritizing energy sustainability. Through this integration, our experimental results demonstrate that in the event of an emergency condition, instead of the automation system persisting under faulty conditions, an email notification is immediately sent to the operator, facilitated by IoT. This approach not only ensures swift response to critical situations but also contributes to energy conservation and overall sustainability. This initiative significantly contributes to ongoing discussions surrounding sustainable energy, digital transformation, and Industry 4.0, marking a significant step forward in promoting conscientious industrial practices for the future.

Haunted Sicilian Landscapes: Orazio Labbate Petrovisions and the Italian Energy Hubris

This paper explores the socio-environmental implications of energy extraction and production in Gela, Sicily. It examines narratives surrounding oil encounters and the manipulation of social and environmental consciousness by national energy companies. Two toxic narratives are examined: the formation of petrofictions and the use of myths and eco-efficiency rhetoric for greenwashing, drawing on environmental and energy humanities perspectives. Through a critical analysis of Orazio Labbate’s novel Suttaterra, the paper explores the trauma induced by encounters with oil and environmental conflicts documented in Sicilian landscapes. It also examines the manipulation of public perception by national energy companies through mythological storytelling, using the example of Eni’s offshore gas exploration project in Sicily. The paper points to the urgent need for a transition to sustainable energy practices and calls for greater environmental and energy justice in the region.

Enhancing sustainable development in the energy sector through strategic commercial negotiations

Sustainable development in the energy sector necessitates a delicate balance between economic growth, environmental stewardship, and social well-being. Strategic commercial negotiations play a pivotal role in achieving this balance, facilitating agreements that align with sustainable development goals (SDGs). This paper explores the intersection of commercial negotiations and sustainable energy practices, emphasizing how strategic negotiations can drive progress towards sustainability. In the contemporary energy landscape, the shift towards renewable energy sources and the implementation of green technologies have become imperative. Effective commercial negotiations are essential in securing investments, fostering partnerships, and establishing frameworks that support the adoption and integration of sustainable practices. Key negotiation strategies include the incorporation of environmental, social, and governance (ESG) criteria, long-term planning, and the adoption of flexible yet robust contract structures. ESG considerations ensure that negotiations address not only financial outcomes but also the broader impact on society and the environment. By prioritizing ESG factors, negotiators can promote responsible business practices that mitigate environmental risks and enhance social benefits. Additionally, long-term planning in negotiations enables stakeholders to align their objectives with global sustainability targets, such as the Paris Agreement and the United Nations SDGs, ensuring that energy projects contribute positively to climate action and sustainable development. The adoption of flexible contract structures is also critical. These structures should accommodate technological advancements and evolving regulatory frameworks, allowing for adaptive management of energy projects. Such adaptability is crucial in a sector characterized by rapid innovation and changing market dynamics. Furthermore, collaborative approaches in negotiations, involving multiple stakeholders including governments, private sector entities, and civil society, can foster inclusive and transparent decision-making processes, enhancing the legitimacy and acceptance of negotiated agreements. In conclusion, strategic commercial negotiations are instrumental in advancing sustainable development in the energy sector. By integrating ESG criteria, long-term planning, and flexible contract structures, negotiators can secure agreements that not only drive economic growth but also promote environmental sustainability and social equity. This approach ensures that the energy sector can contribute effectively to global sustainability goals, creating a resilient and sustainable future. Keywords: Energy Sector, Enhancing, Sustainable Development, Strategic, Commercial Negotiations.

The effectiveness of applying the economic and technological dimensions of the kingdom of Saudi Arabia’s vision 2030 to achieve the competitive advantage of the Hail Region

This research focuses on examining the impact of Saudi Arabia’s Vision 2030 on the energy industry, specifically in the Hail region, by exploring the role of technological and economic strategies in fostering sustainable energy development. The study aims to identify key factors that facilitate the implementation of Vision 2030 to assess the current energy landscape in Saudi Arabia. By delving into the economic and technological dimensions of Vision 2030, the research seeks to determine the essential components that the Kingdom of Saudi Arabia needs to establish systems and initiatives that align with global scientific and technological advances, ensuring competitiveness and progress in the global arena. By surveying 60 faculty members from Hail University, the study employs a descriptive-analytical approach to unravel how economic activities and technological advancements collaborate to shape a sustainable and competitive energy sector. The findings highlight the crucial role of technological innovations, including advances in administrative processes, human resource management, regulatory frameworks, and technical infrastructure related to energy efficiency and renewable energy technologies. Furthermore, the study evaluates economic aspects such as labor market reforms, skill development programs, and support for emerging energy enterprises. The results underscore the positive impact of technological and economic interventions on the energy sector in the Hail region, with significant improvements in energy project management efficiency and the creation of a conducive environment for sustainable energy practices. The study reveals that the integration of technological and economic initiatives has led to notable improvements in the energy sector, reflected in average values ranging from 68% to 84%. These results underscore the fundamental role of Vision 2030 in advancing sustainable energy development and underscore the importance of leveraging economic and technological strategies to achieve energy sustainability and competitive advantage. This research contributes to understanding how Saudi Arabia’s Vision 2030 is driving progress in the energy industry and emphasizes the importance of integrating economic and technological approaches in shaping a sustainable energy landscape. The findings provide valuable information for policymakers and stakeholders in the energy sector, highlighting the need for concerted efforts to harness economic and technological advancements to promote sustainable energy development. By showcasing the transformative impact of Vision 2030 on the energy sector in the Hail region, this study underscores the originality and importance of research in advancing the goals of sustainable energy development in Saudi Arabia.

Enhancing low-carbon building operations leveraging demand response driven by renewable energy consumption contributions

In the pursuit of sustainable low-carbon energy practices, demand response (DR) has emerged as a pivotal strategy, particularly in the management of building energy consumption. However, current demand management methods often lack a thorough evaluation of building carbon reduction benefits and fall short in promoting grid decarbonization. This paper proposes a low-carbon operation optimization method for buildings, with a novel DR strategy aimed at facilitating local renewable energy consumption and system-level renewables integration. Considering local and systemic renewable shares, an evaluation framework is first introduced for quantitative building energy assessment in each period. The building loads with controllable flexibilities are then grouped and aggregated based on their elasticity characteristics and probability distribution. Finally, a low-carbon optimization model is established, leveraging the DR strategy for sustainable building operations through flexible load regulation. Utilizing measured building data in Shanghai, a case study with extensive analysis validates the effectiveness of the methodology. The results suggest that following DR implementation, the similarity between the building load profile and the systemic renewable share improves by 34.48 %. Moreover, carbon emissions decrease by 5.27 % at the same level of building energy consumption. Further analysis highlights that energy storage can enhance load adjustment capabilities and the potential for reducing carbon emissions. Compared to conventional DR programs, the proposed strategy demonstrates significant advantages of abundant flexibility and low-carbon benefits. The widespread implementation of low-carbon operations in large-scale building groups has profound implications for integrating renewable energy and achieving system decarbonization goals.© 2017 Elsevier Inc. All rights reserved.

Exploring the interplay of renewable energy and carbon dioxide emissions across US sectors through wavelet approach

AbstractClimate change presents urgent challenges that require simultaneous attention to environmental and economic dimensions. Addressing this global issue involves tackling its root causes and closely monitoring progress in energy transition efforts to formulate effective strategies. Understanding the complexities and opportunities of shifting toward low‐carbon economies underscores the necessity for innovative sector‐specific policies promoting sustainable energy practices and reducing air pollution. An insightful grasp of how energy transitions impact environmental sustainability is critical, highlighting sector‐specific dynamics for informed policy and decision‐making. This study employs a wavelet approach to explore the relationship between CO2 emissions and renewable energy consumption, analyzing both aggregate and sector‐specific metrics. This time‐varying analysis offers a view of how this relationship evolves over time, providing valuable insights into the effectiveness and outcomes of sustainable energy strategies. Drawing on a dataset spanning from January 1989 to March 2022 in the United States, the research identifies coherence and co‐movements across different frequencies and time dimensions. Results underscore the need to tailor energy strategies to sector‐specific dynamics, particularly noting that despite the growing adoption of renewable energies in industrial and transportation sectors, their impact on reducing CO2 emissions remains limited. However, the electric power sector shows a promising potential for reducing emissions through increased renewable energy integration.

Review on Absorption Refrigeration Technology and Its Potential in Energy-Saving and Carbon Emission Reduction in Natural Gas and Hydrogen Liquefaction

With the requirement of energy decarbonization, natural gas (NG) and hydrogen (H2) become increasingly important in the world’s energy landscape. The liquefaction of NG and H2 significantly increases energy density, facilitating large-scale storage and long-distance transport. However, conventional liquefaction processes mainly adopt electricity-driven compression refrigeration technology, which generally results in high energy consumption and carbon dioxide emissions. Absorption refrigeration technology (ART) presents a promising avenue for enhancing energy efficiency and reducing emissions in both NG and H2 liquefaction processes. Its ability to utilize industrial waste heat and renewable thermal energy sources over a large temperature range makes it particularly attractive for sustainable energy practices. This review comprehensively analyzes the progress of ART in terms of working pairs, cycle configurations, and heat and mass transfer in main components. To operate under different driven heat sources and refrigeration temperatures, working pairs exhibit a diversified development trend. The environment-friendly and high-efficiency working pairs, in which ionic liquids and deep eutectic solvents are new absorbents, exhibit promising development potential. Through the coupling of heat and mass transfer within the cycle or the addition of sub-components, cycle configurations with higher energy efficiency and a wider range of operational conditions are greatly focused. Additives, ultrasonic oscillations, and mechanical treatment of heat exchanger surfaces efficiently enhance heat and mass transfer in the absorbers and generators of ART. Notably, nanoparticle additives and ultrasonic oscillations demonstrate a synergistic enhancement effect, which could significantly improve the energy efficiency of ART. For the conventional NG and H2 liquefaction processes, the energy-saving and carbon emission reduction potential of ART is analyzed from the perspectives of specific power consumption (SPC) and carbon dioxide emissions (CEs). The results show that ART integrated into the liquefaction processes could reduce the SPC and CE by 10~38% and 10~36% for NG liquefaction processes, and 2~24% and 5~24% for H2 liquefaction processes. ART, which can achieve lower precooling temperatures and higher energy efficiency, shows more attractive perspectives in low carbon emissions of NG and H2 liquefaction.

Effects of globalization and financial inclusion on energy intensity: The case of emerging economies

This research examines the effects of globalization and financial inclusion on the energy intensity of selected sixteen emerging economies by controlling the effects of economic growth, inflation, and stock market capitalization. The study period covers twenty-two years, starting from 2000 and ending in 2021, providing a complete perspective on the changing dynamics inside these countries. The study employs the novel technique of Method of Moment Quantile Regression (MMQR) to empirically assess the interlinkages between the employed factors on energy intensity. The findings suggest that when economies expand, engage in global trade, and encounter inflationary pressures, they tend to exhibit remarkable changes in energy intensity. The results find negative effects of globalization, GDP, and inflation on energy intensity. In contrast, a positive correlation exists between financial inclusion, stock market capitalization, and energy intensity. Policies must be designed with the objective of harnessing the advantages of globalization in order to enhance energy efficiency, encompassing elements such as technology transfer and regulatory harmonization. Concurrently, it is imperative to establish a sound relationship between financial inclusion and the expansion of stock markets, while also integrating sustainable energy practices.

Incentivizing sustainable practices: Game-theoretic approach to peer-to-peer energy trading in the green transition era

The urgent global concern regarding climate change has highlighted the necessity for transitioning to power generation with zero carbon emissions to promote a sustainable and environmentally conscious society. A crucial element in this transformation is reducing our dependence on the primary grid, which is predominantly powered by fossil fuels, natural gas, and coal. An innovative strategy for achieving this essential transition is through peer-to-peer energy trading (P2PET). However, the effectiveness of P2PET relies on successfully aligning the energy-related objectives of its participants. Identifying and effectively addressing these goals is a significant challenge. In response, this paper introduces a game-theoretic framework designed to encourage subscribers to engage in P2PET, both in islanded microgrids and interconnected grid configurations. Our methodology begins by introducing a model that captures the core energy-related objectives of both energy producers and consumers. This model is supported by a layered architectural framework tailored for peer-to-peer (P2P) marketplaces, enhancing the identification and classification of existing technologies in this domain. Following this, we delve into the formulation of an extended-form game rooted in non-cooperative game theory. We systematically evaluate the presence of strict Nash equilibria within this game-theoretic structure. To promote active engagement and trading in the peer-to-peer energy market (P2PEM), we introduce an innovative energy allocation policy. This policy is strategically devised to ensure the inclusion of every subscriber in the market, irrespective of fluctuations in supply and demand dynamics. Our proposed P2PET scheme is tested on a representative system, specifically a 14-bus IEEE network, incorporating 8 energy producers and 11 consumers as active participants in the market. By conducting an extensive series of tests, we accurately evaluate the design's performance. The results, compared to previous studies, show a significant reduction in consumer energy bills, ranging from 33 % to 7 %. This convincing result underscores the effectiveness and robustness of our proposed energy trading framework. In a world grappling with the imperative to transition to sustainable energy practices, our game-theoretic approach to incentivizing participants in P2PET emerges as a pivotal contribution. It demonstrates tangible benefits, promotes green energy production, and encourages responsible energy consumption.

Multidimensional Analysis of Sustainability and Integration of Sustainable Energy Practices in Petroleum Field Management

Multidimensional Analysis of Sustainability and Integration of Sustainable Energy Practices in Petroleum Field Management

Turn down for watt: Community fit and thermal comfort habituation predict average household heating energy consumption

Lowering average household heating energy consumption plays a pivotal role in addressing climate change and has been central to policy initiatives. Strategies proposed so far have included commitments, incentives/ disincentives, feedback, and social norms. Yet, findings so far have been mixed and fail to explain the mechanism that drives energy conservation behavior. Using a sample of 2,128 participants across the United States, we collected survey data matched with archival temperature data to investigate the influence of past experiences on current energy conservation behaviors. Our findings indicate that childhood home temperatures significantly predict current home temperature settings. Importantly, community fit moderated this relationship. Individuals with high community fit were more likely to align their home temperature settings to those of their community. These insights not only shed light on the underlying mechanisms driving energy consumption behavior but also suggest that fostering a sense of community fit might be a more effective strategy for promoting sustainable energy practices.

Elephant Grass (Pennisetum purpureum): A Bioenergy Resource Overview

Elephant grass (EG), or Pennisetum purpureum, is gaining attention as a robust renewable biomass source for energy production amidst growing global energy demands and the push for alternatives to fossil fuels. This review paper explores the status of EG as a sustainable bioenergy resource, integrating various studies to present a comprehensive analysis of its potential in renewable energy markets. Methods employed include assessing the efficiency and yield of biomass conversion methods such as pretreatment for bioethanol production, biomethane yields, direct combustion, and pyrolysis. The analysis also encompasses a technoeconomic evaluation of the economic viability and scalability of using EG for energy production, along with an examination of its environmental impacts, focusing on its water and carbon footprint. Results demonstrate that EG has considerable potential for sustainable energy practices due to its high biomass production and ecological benefits such as carbon sequestration. Despite challenges in cost competitiveness with traditional energy sources, specific applications like small-scale combined heat and power (CHP) systems and charcoal production show economic promise. Conclusively, EG presents a viable option for biomass energy, potentially playing a pivotal role in the biomass sector as the energy landscape shifts towards more sustainable solutions; although, technological and economic barriers need further addressing.

The nexus between foreign direct investment, economic progress, and quality of institutions in fostering sustainable energy efficiency: Evidence from BRICS economies

This paper analyzes the relationship between Foreign Direct Investment (FDI), economic growth, and institutional quality to maintain sustainable energy efficiency in BRICS. The objective of our study is to decompose which elements collectively impact the uptake of sustainable energy practices. A comprehensive dataset and an advanced econometric model Data Envelopment Analysis (DEA) are employed to investigate the dynamics at play. It has been done through comprehensive research to understand these FDI mechanisms driving the sustainable energy transition, bringing forth the fundamental role of strong institutions and sustained growth. In contrast to existing models, the analysis incorporates institutional quality, providing a fresh perspective on the impact of this factor on FDI and economic development in the BRICS economies. Findings show the crucial position FDI holds in developing sustainable energy and the institutional structure's effectiveness in accomplishing the current objectives. We have kept the position of economic growth, which serves as the essential driver for environmentally friendly use of energy resources. Our results have shown that FDI in sustainable energy is a requisite for economic growth improvement and the need for such progress to be supported by effective institutions to facilitate intra-regional investments.

Accounting calendar and cyclic ageing factors in diagnostic and prognostic models of second-life EV batteries application in energy storage systems

The rapid expansion of the electric vehicle market has significantly increased the demand for lithium-ion batteries, posing challenges for manufacturers and policymakers regarding efficient use and recycling. When these batteries reach the end of their primary lifecycle, their repurposing for secondary applications such as energy storage becomes critical to addressing environmental and resource management issues. This paper focuses on applying second-life batteries in energy storage systems, emphasizing the importance of accounting for calendar and cyclic aging factors to optimize battery performance and longevity. Calendar aging refers to the degradation that occurs over time due to chemical reactions within the battery, even when it is not in use. This type of aging is influenced by temperature, state of charge (SOC), and storage conditions. Cyclic aging, on the other hand, results from repeated charging and discharging cycles, which cause mechanical and chemical changes within the battery, leading to capacity fade and increased internal resistance. The combined effects of these aging processes necessitate the development of high-precision diagnostic and prognostic models to manage the performance and longevity of second-life batteries effectively. In Ukraine, the adoption of electric vehicles is accelerating, leading to an influx of used electric vehicles. This situation necessitates the prompt development of strategies for repurposing these batteries for energy storage applications. The complexities associated with final recycling processes make secondary use an attractive interim solution. By repurposing used EV batteries, Ukraine can mitigate immediate challenges related to battery waste and resource scarcity while supporting the transition to renewable energy sources. This paper highlights the need for an integral degradation index (DI) that combines calendar and cyclic aging factors with stochastic influences to provide a comprehensive measure of battery health. Such an index is essential for optimizing battery management practices, including the scheduling of charging and discharging cycles, to extend the operational life of secondary batteries. The study also presents practical recommendations for implementing these models in various energy storage scenarios, ranging from residential solar energy systems to industrial grid support and electric vehicle charging stations. By adopting optimized battery management strategies, the potential for extending the lifespan of secondary batteries and reducing operational costs is significant. This approach supports sustainable energy practices and aligns with global efforts to promote renewable energy sources and circular economy principles. Keywords: Lithium-Ion Battery, Electric Vehicle, Energy Storage, Battery Degradation, Calendar Ageing, Cyclic Ageing, Integral Degradation Index, Remaining Useful Life, State of Health.

EMPOWERING A MOSQUE COMMUNITY IN MELAKA WITH SOLAR LIGHTING TECHNOLOGIES APPLICATION: A COMMUNITY-BASED APPROACH

This research presents a community-based approach to address energy security and energy-saving initiatives through the installation of solar lighting systems for a mosque community in Melaka. The aim is to foster community development while promoting sustainable energy practices, thereby fostering a sense of ownership and responsibility towards sustainable practices. It employs action-based research on-site, which involves participatory projects and empirical observation. The significance of this research lies in its dual focus on community empowerment and environmental sustainability by engaging stakeholders and local people to ensure energy self-sufficiency and sustainability of the project through green resources. A mosque in Merlimau, Melaka, has been selected as a case study and involves a mixed-method approach that leads towards collaborative efforts between researchers, community leaders, and local residents in the decision-making process. Ultimately, this research has ensured engagement among the locals, which aligns with the daily energy priorities of the mosque. By harnessing the power of 25 solar lighting systems (ranging from 10 watts to 200 watts), this mosque has managed to reduce its reliance on traditional energy sources, thus contributing to energy security and saving 10% from the monthly electricity bills. It has served as a tangible demonstration of the benefits of solar energy, inspiring broader adoption within other mosque communities in Malaysia. In the near future, the dissemination of solar lighting technologies is anticipated to contribute towards more sustainable mosques and increase the community development through resilient approaches.

The Cointegration Between Energy Subsidy and Energy Accessibility in Eastern Africa Countries

Despite the significant potential, the energy industry in East Africa remains largely underdeveloped, with minimal modern energy access, low per capita consumption, and heavy reliance on biomass energy, which makes up over 90% of the region’s energy consumption. Less than 1% of rural areas have access to electricity. Introduction of subsidies on energy influences energy accessibility. The study found it clear that subsidies slightly improved energy accessibility in Eastern African countries in the long run. This can be explained by the fact that energy subsidies often result in lower prices for energy consumers. This makes energy more affordable for households, particularly those with lower incomes. Lower energy prices reduce the financial burden of meeting energy needs, making it easier for individuals and families to access essential energy services such as electricity, heating, and cooking. Lower energy prices due to subsidies can lead to increased energy consumption. It is therefore the responsibility of each member state to encourage the adoption of renewable energy sources by providing subsidies and incentives for renewable energy technologies such as solar panels, wind turbines, and energy-efficient appliances. Subsidizing renewable energy reduces reliance on fossil fuels, mitigates environmental impacts, and promotes sustainable energy practices.

Methanol Steam Reforming for Hydrogen Production over Ni-Based Catalysts: State-Of-The-Art Review and Future Prospects.

With increasing global emphasis on environmental sustainability, the reliance on traditional energy sources such as coal, natural gas, and oil are encountering significant challenges. H2, known for its high energy content and pollution-free usage, emerges as a promising alternative. However, despite the great potential of H2, approximately 95 % of hydrogen production still depends on non-renewable resources. Hence, the shift towards producing H2 from renewable sources, particularly through methods like steam reforming of methanol - a renewable resource - represents a beacon of hope for advancing sustainable energy practices. This review comprehensively examines recent advancements in efficient H2 production using Ni-based catalysts in methanol steam reforming (MSR) and proposes the future prospects. Firstly, the fundamental principles of MSR technology and the significance in clean energy generation are elucidated. Subsequently, the design, synthesis techniques, and optimization strategies for enhancing the catalytic performance of Ni-based catalysts are discussed. Through the analysis of various catalyst compositions, structural adjustments, surface active sites, and modification methods, the review uncovers effective approaches for boosting the activity and durability of MSR reactions. Moreover, the review investigates the causes of deactivation in Ni-based catalysts during MSR reactions and proposes strategies for extending catalyst lifespan through fine design and optimization of operation parameters. Lastly, this review outlines the current research challenges and anticipates the future trends and potential applications of Ni-based catalysts in MSR hydrogen production. By offering a comprehensive critical analysis, this review serves as a valuable reference to enhance MSR hydrogen production efficiency and catalyst performance.

Towards sustainable tourism energy practices: evaluating fuelwood consumption in the North-West Himalayas

Towards sustainable tourism energy practices: evaluating fuelwood consumption in the North-West Himalayas

Renewable energy resource management using an integrated robust decision making model under entropy and similarity measures of fuzzy hypersoft set

The demand for renewable energy has significantly increased over the last decade with increased attention to the preservation of the environment and sustainable, optimal resource management. As traditional sources of energy production are depleting at an alarming rate and causing long-lasting environmental damage, it is essential to explore green and cost-effective methodologies for meeting energy demand. With each country having different geographical, political, social, and natural factors, the problem arises of which renewable energy should be utilized for optimal resource management. This multi-criteria decision making (MCDM) challenge is tackled by applying a dynamic fuzzy hypersoft set-based Method for the evaluation of currently deployed Renewable Energy systems and providing a decision support system for the installation of new ones based on the factors mentioned above for Turkey. As the installation of new renewable energy projects and the evaluation of old ones is significantly influenced by human judgment, it leaves great room for uncertainty primarily because of the psychological factors of the expert. The novel concept of Fuzzy Hypersoft Sets (FHSs) and their Entropy (EN) and TOPSIS-based operations are first discussed with reference to the problem at hand. The presented structure is superior to the ones in the literature by allowing access to data parameters as sub-parametric values while utilizing the versatility of Fuzzy structures to deal with uncertainty. The technique has great potential to serve as a potential decision support system in any setting. For now, hypothetical expert ratings are used to illustrate the working of the dynamic structure along with a sensitivity analysis to investigate the primary criterion weights in sorting. The evaluation of currently deployed renewable energy systems using our methodology revealed an average improvement in system performance compared to traditional methods. Furthermore, the decision support system for the installation of new projects based on geographical, political, social, and natural factors exhibited a potential increase in overall system efficiency. These numeric outcomes highlight the effectiveness and practical applicability of our approach in optimizing resource management and fostering sustainable energy practices.