https://theeducationjournals.com/index.php/JGETS/issue/feedJournal of Green Energy and Transition to Sustainability2025-01-27T04:45:10+03:00Open Journal Systems<p class="font_8">The <em>Journal of Green Energy and Transition to Sustainability</em> is a scholarly publication dedicated to advancing knowledge and promoting innovation in the transition towards a more sustainable energy future. With growing concerns about climate change, environmental degradation, and energy security, there is an urgent need to accelerate the adoption of green energy technologies and practices. This journal serves as a vital platform for researchers, policymakers, industry stakeholders, and environmental advocates to engage in rigorous analysis, debate, and collaboration on topics related to green energy and sustainability transitions.</p> <div class="content" tabindex="0" aria-description="" aria-label="Sent by Copilot: Certainly! Let's create a similar paragraph for the **"Journal of Green Energy and Transition to Sustainability"**: "**Journal of Green Energy and Transition to Sustainability**," published by Newton Gate Inc., is a distinguished scholarly journal committed to advancing knowledge and understanding in the fields of green energy and sustainable transitions. As a leading publication in this domain, the journal serves as an essential resource for academics, researchers, practitioners, policymakers, and students who seek to stay informed about the latest developments and emerging trends in these critical areas. Driven by a dedication to excellence and innovation, the journal provides a comprehensive platform for disseminating high-quality research, cutting-edge insights, and practical strategies. It covers a wide spectrum of topics, including renewable energy technologies, environmental conservation, circular economy, climate change mitigation, and societal transitions. Readers gain a holistic perspective on the multifaceted factors shaping the transition toward sustainable energy systems. Each issue of the journal features original research articles, review papers, case studies, perspectives, and commentaries contributed by leading experts and scholars from diverse backgrounds. Rigorous peer review and editorial oversight ensure the integrity, relevance, and impact of the content, maintaining the highest standards of scholarship. As part of Newton Gate Inc.'s commitment to fostering scholarly exchange and intellectual collaboration, the journal encourages interdisciplinary dialogue across various disciplines, sectors, and global contexts. By facilitating knowledge-sharing, promoting innovative solutions, and advocating best practices, it empowers stakeholders to make informed decisions, drive positive change, and address the complex challenges of our rapidly evolving energy landscape. Whether you are an academic researcher exploring novel pathways, a sustainability professional seeking practical insights, or a policymaker shaping the future of energy policy, the **Journal of Green Energy and Transition to Sustainability** invites you to engage, contribute your expertise, and navigate the transformative journey toward a greener and more sustainable world."> <div class="ac-container ac-adaptiveCard"> <div class="ac-textBlock"> <p>At its core, the journal covers a broad spectrum of topics within the field of green energy and sustainability. Articles may explore renewable energy sources such as solar, wind, hydro, biomass, and geothermal, as well as emerging technologies like tidal energy, wave energy, and hydrogen fuel cells. By examining the technical, economic, social, and environmental dimensions of these technologies, contributors to the journal offer insights into their potential benefits, challenges, and implications for sustainable development.</p> <p>Moreover, the journal addresses broader issues related to the transition to a sustainable energy system. Articles may delve into topics such as energy policy and regulation, energy efficiency, energy storage, smart grid technologies, decentralized energy systems, and circular economy approaches. By critically analyzing these issues, the journal contributes to shaping policies, strategies, and initiatives that facilitate the transition to a more resilient, equitable, and environmentally friendly energy system.</p> <p>In addition to technological innovations, the journal also explores social, cultural, and behavioral aspects of sustainability transitions. Articles may examine public perceptions of green energy technologies, community engagement in renewable energy projects, barriers to adoption, and strategies for fostering sustainable lifestyles and consumption patterns. By addressing these socio-cultural dimensions, the journal promotes a holistic understanding of the challenges and opportunities inherent in the transition to sustainability.</p> <p>Furthermore, the journal engages with broader debates and trends in sustainability research, including issues of environmental justice, climate resilience, biodiversity conservation, and socio-economic development. By critically reflecting on these topics, the journal contributes to advancing knowledge, fostering interdisciplinary collaboration, and promoting evidence-based decision-making in the pursuit of a more sustainable future for all.</p> <p data-sider-select-id="0915ffa5-8b89-4d08-a4a0-adbee6c6ddce">In summary, the <em>Journal of Green Energy and Transition to Sustainability</em> stands as a premier publication for advancing scholarship, informing policy, and driving action in the critical endeavor to transition towards a greener, more sustainable energy future</p> </div> </div> </div>https://theeducationjournals.com/index.php/JGETS/article/view/116CFD ANALYSIS OF A FLAT PLATE SOLAR COLLECTOR TO IMPROVE HEAT TRANSFER CAPACITY2024-08-09T11:41:33+03:00Dr Lelya Hildalelyahilda@iain-psp.ac.id<p>Low-level and medium-level solar heat systems typically use flat-panel solar heat collectors to absorb solar heat energy, convert it to heat, and then heat the liquid (usually water or air) flowing through them. Communicate. These systems are used in home and industrial applications such as water and heating. The purpose of this work is to provide numerical simulations of solar collectors built for a variety of purposes. To better understand the heat transfer capacity of solar collectors, the tool Computational Fluid Dynamics <br>(CFD) was used in the current diploma treatise. In this paper ANSYS Workbench is used to build a 3D collector that included an air intake, a wavy textured absorption plate, a glass cover plate, and pebbles. ANSYS ICEM is used to build an unstructured grid. The results were obtained using the ANSYS FLUENT program.</p>2025-01-27T00:00:00+03:00Copyright (c) 2024 https://theeducationjournals.com/index.php/JGETS/article/view/117PREDICTION OF SOLAR ENERGY GENETRATION FROM THE WEATHER DATA USING MACHINE LEARNING2024-08-09T11:45:52+03:00Kusuma Kurmakkurma@sfu.edu<p>The significant growth of the amount of grid energy supplied by renewable sources is one of the main objectives of smart grid efforts. One of the challenges in incorporating renewable energy sources into the system is the intermittent and unpredictable nature of electricity generation. The necessity to relocate generators to meet demand as production fluctuates makes it imperative to forecast future renewable energy output. While building complex prediction models by hand for huge solar farms may be feasible, doing so for distributed power generation in the grid's millions of homes is a difficult undertaking. This research investigates machine learning methods for automatically generating site-specific forecasting models for solar power generation using National Weather Service (NWS) weather predictions in order to address the problem. by comparing several regression techniques to create prediction models, including multilayer perceptron’s and neural networks with long-term memory. combining historical NWS forecasts and sun intensity data from a weather station that has been operational for about a year to assess the accuracy of each model. Our findings demonstrate that predictive models developed for our site employing seven different weather forecasting parameters are more accurate than current forecast-based models.</p>2025-01-27T00:00:00+03:00Copyright (c) 2024 https://theeducationjournals.com/index.php/JGETS/article/view/118WIND ENERGY FORECSTING USING RECURRENT NEURAL NETWORKS2024-08-09T11:48:30+03:00K L Sai Shankarkurmal1@udayton.eduJayanth Kuchipudikurmal1@udayton.edu<p>Forecast of wind power is an estimation of the output production required of one or more wind turbines. Because of the variations and the probabilistic characteristics of the wind energy, forecasting it accurately becomes essential for designing reliable, economic operation and power control strategies. Changes in the nature and characteristics of the wind are probabilistic and a variety of machine learning model based on statistical parameters are used to characterize the randomness in the wind power production. The <br>drawbacks of different approaches include their computational complexity and their inability to adapt to timeseries processes. This paper describes Recurrent Neural Network (RNN) Long-Short Term Memory (LSTM) for time series prediction of wind power. LSTM units based RNN models have the ability to learn from the important past observations and decide whether this learned information is useful for future prediction. The experimental study showed better performance of the LSTM model compared with other traditional models.</p>2025-01-27T00:00:00+03:00Copyright (c) 2024 https://theeducationjournals.com/index.php/JGETS/article/view/119CFD ANALYSIS OF WIND TURBINE USING SHEAR STRESS TRANSFER MODEL2024-08-09T11:52:39+03:00Dr Sajaratuddursajaratuddur@uinsu.ac.id<p>A rotating machine called a wind turbine uses the wind's energy. One of the most successful forms of renewable energy has been found to be wind power. The cheap cost of wind energy is comparable to conventional energy sources like coal with current technology. Wind turbine generator systems that transform wind energy into mechanical energy depend heavily on their rotor blades. Commercial wind turbine rotor blades typically have an air foil cross section. When compared to the potential energy that can be harvested, these blades have shown to be extremely efficient at lower wind speeds. In the discipline of computational fluid dynamics (CFD), issues involving fluid flow are solved and analysed using numerical techniques and algorithms. The computations required to model the interaction of liquids and gases with surfaces specified by boundary conditions are carried out by computers in Ansys.</p>2025-01-27T00:00:00+03:00Copyright (c) 2024