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Kunny Izza Indah Afkarina
Contact Email
admin@iasssf.com
Phone
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Journal Mail Official
enjust@journal-iasssf.com
Editorial Address
Cluster Kukusan Jalan Rawa Pule 1 No 25 M, Beji, Kota Depok, Provinsi Jawa Barat, 16425, Indonesia
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INDONESIA
Energy Justice
ISSN : -     EISSN : 30479851     DOI : https://doi.org/10.61511/enjust.v1i2.2024
Core Subject : Science, Social,
Aims ENJUST aims to advance the discourse on equity and fairness within energy systems. The journal focuses on exploring how energy policies, practices, and technologies impact different communities, with an emphasis on promoting justice and inclusion in energy transitions. ENJUST seeks to provide a platform for research that addresses the social, economic, and environmental dimensions of energy justice, fostering discussions on equitable solutions for sustainable energy systems. Focus ENJUST concentrates on publishing high-quality, peer-reviewed research that investigates the principles and practices of energy justice. The journal emphasizes studies that highlight the intersection of energy with social justice issues, including how energy access, distribution, and policy affect marginalized communities. Contributions that offer new insights into creating fair and equitable energy systems are particularly valued. Scope This journal seeks to publish a broad range of scholarly articles, including: 1. Equity in Energy Access and Distribution: Examining disparities in access to energy services and resources, including energy poverty and the unequal distribution of clean energy. Research in this area focuses on identifying and addressing barriers to equitable energy access. 2. Social Impacts of Energy Policies: Analyzing how energy policies affect different social groups, particularly marginalized and vulnerable populations. This includes evaluating the effectiveness and fairness of policy frameworks and their implementation. 3. Energy Transition and Justice: Investigating the social implications of transitioning to renewable energy and sustainable practices. This includes examining how such transitions impact workers, communities, and economies, and developing strategies to ensure equitable outcomes. 4. Community-Led Energy Initiatives: Exploring grassroots and community-driven energy projects aimed at addressing local needs and promoting justice. Research may include case studies of community energy cooperatives, local renewable energy projects, and participatory planning processes. 5. Global Perspectives on Energy Justice: Providing comparative analyses of energy justice practices and policies across different regions and countries. This includes studying global challenges and solutions related to energy equity, highlighting diverse approaches to achieving energy justice. 6. Technological Innovations and Equity: Assessing how advancements in energy technologies affect social equity. This includes evaluating the accessibility and affordability of emerging technologies and their potential to bridge or widen existing disparities in energy access. 7. Institutional Frameworks for Energy Justice: Investigating the role of institutions and governance structures in promoting or hindering energy justice. Research may focus on how institutional practices, regulations, and governance models influence the fair distribution and management of energy resources.
Articles 5 Documents
Search results for , issue "Vol. 1 No. 2: (Agustus) 2024" : 5 Documents clear
Pembentukan hidrogen dari koh menggunakan katalis aluminium foil dari limbah bungkus rokok Safitry, Deska Eka; Widodo, Hernowo
Energy Justice Vol. 1 No. 2: (Agustus) 2024
Publisher : Institute for Advanced Social, Science, and Sustainable Future

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.61511/enjust.v1i2.2024.1187

Abstract

Background: As we know, at this time the State of Indonesia is experiencing an energy crisis due to the increasing number of population which has a direct effect on fuel consumption. Hydrogen is very likely to be an alternative fuel for the future. Findings: The hydrogen production process can be carried out biologically or chemically. Chemical production of hydrogen is to use alkaline aluminum to be used as an alkaline aluminum fuel cell. An alkaline-air aluminum fuel cell is a series of aluminum anodes in an alkaline solution and oxygen gas in the cathode that will produce electrical energy. Methods: This research tries to utilize aluminum foil waste (Cigarette Wrapper) as a source of aluminum for hydrogen production. For this reason, research into the production of hydrogen gas from aluminum foil waste using a KOH catalyst. Hydrogenation is done by the process of Hydrognation with temperatures of 25 ° C, 30 ° C, and 40 ° C, with the activator used is Potassium Hydroxide with concentrations of 1M, 2M, 3M, and 4M. Conclusion: The results showed that at 25 ° C with a concentration of 1M there was a volume weight of 286.04 ml. The 2M concentration contained a volume weight of 165.31. 3M concentrations have a volume weight of 118.80 ml. The 4M concentration contained a volume weight of 112.90 ml. At a temperature of 30 ° C with a concentration of 1M there is a volume weight of 217.19 ml. The 2M concentration contained a volume weight of 271.22 ml. 3M concentration contained a volume weight of 273.48 ml. 4M concentration was 272.79 ml. At 40 ° C with a concentration of 1M there is a volume weight of 927 ml. The 2M concentration contained a volume weight of 640.9 ml. 3M concentration contained a volume weight of 453.6 ml. and the 4M concentration contained a volume weight of 299.7 ml. The best results are shown in KOH Activator temperature 40 ° C with a volume weight of 299.7 ml and a concentration of 4M.
Katalis bimetalk CuCo/AI203 dalam reaksi hidrolisis sodium borohydride sebagai reaksi penghasil hidrogen Husna, Huriyatul; Widodo, Hernowo
Energy Justice Vol. 1 No. 2: (Agustus) 2024
Publisher : Institute for Advanced Social, Science, and Sustainable Future

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.61511/enjust.v1i2.2024.1191

Abstract

Background: Sodium Borohydrida is an inorganic compound with the chemical formula NaBH4, this compound is soluble in alcohol and some ether has not been added to air into hydrogen gas containing a catalyst. Findings: In this way it can be produced safely for fuel cells. Methods: Producing catalytically H2 from solution, NaBH4 has gained many advantages, NaBH4 is not flammable, environmentally friendly reaction products, the rate of generation of H2 is easily controlled, H2 can be produced at low temperatures. Conclusion: The catalyst used in the hydrolysis of sodium borohydride is Cu and Co which acts as a heterogeneous catalyst. The limited surface area of heterogeneous catalysts causes lower catalytic activity because catalyst activity is directly related to its surface area. Thus, the use of Cu and Co with large surfaces provides a potential route for increasing catalytic activity. For this reason, we use CuCo / Al2O3 as a catalyst in the hydrolysis of sodium borohydride.
Risk management: Clean water crisis mitigation efforts in Indonesia with rain water harvesting and reverse osmosis innovations Irnawan, Rahman Fajar
Energy Justice Vol. 1 No. 2: (Agustus) 2024
Publisher : Institute for Advanced Social, Science, and Sustainable Future

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.61511/enjust.v1i2.2024.1208

Abstract

Background: Water is an important component for living things on earth, so water cannot be separated from human life. This is because the human component consists of 70% water in it. The increase in population and polluted water sources has caused humans to experience a clean water crisis, thereby hampering human socioeconomic life on earth. Findings: Considering that Indonesia has a fairly high rainfall, namely 2,702 mm3 per year, and has polluted water sources and a large sea area, the innovative idea of using rainwater harvesting and reverse osmosis is a solution to overcome problems and be able to overcome the risk of a clean water crisis in the future. front. Discussing the clean water crisis in Indonesia, the area that has this problem is one of the DKI Jakarta areas, namely, Muara Angke, Pluit, and North Jakarta. Methods: In writing this idea, systematic literature reviews and article reviews were used. The systematic method of the literature review is collecting metadata obtained according to the journal database via https://scholar.google.com/ and visualizing it using VOSviewer. This is intended to show research trends regarding clean water technology. Conclusion: Three blocks have a water shortage crisis, namely the Waste Block, the Eceng Block, and the Empang Block. The scarcity of clean water in this area is caused by illegal land issues which makes it difficult to obtain permits for piping systems from the PDAM and the contamination of springs due to the influence of geographical location. The implementation of this technology is considered quite simple in the community so it can be a solution to the clean water crisis problem.Of course, the treated water is expected to meet the parameters of clean water, namely the Ministry of Health Regulation Number 32 of 2017 concerning sanitation water and the Ministry of Health Regulation Number 492 of 2010 concerning drinking water quality standards. So that the water can be utilized by the people of Indonesia.
Assesing wave power potential in Nkhatabay, Malawi Khumbanyiwa, David
Energy Justice Vol. 1 No. 2: (Agustus) 2024
Publisher : Institute for Advanced Social, Science, and Sustainable Future

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.61511/enjust.v1i2.2024.1209

Abstract

Background: This thesis is an investigation of the wave power resource on Lake Malawi, precisely Nkhatabay, focusing on the spatial distribution of wave power of the said places exposed to the highest wave power. Findings: The main objective of this study was to determine the wave potential of Lake Malawi in Malawi in order to allow design and usage of wave energy in Malawi. Methods: The study methodology employed to achieve this main objective entails an analysis of measured wave data recorded at wave recording station along Lake Malawi. Conclusion: The analysis provided a general description of wave power at the location for which wave data exist. From this analysis,it was found that Nkhatabay is exposed to average wave power of approximately 202 KW/m annually. Data was collected from the Department of Climate Change and Meteorological Services (DCCMS), who have implanted a Lake buoy at Usisya in Nkhatabay. The data gathered was analyzed using Microsoft excel and R studio to come up with graphs for proper description of results. Power calculations were conducted as well to determine the output of turbines used with respect to the wave data observed.
Potensi polisakarida xanthan dari fermentasi xanthomonas campestris sebagai pengembangan edible film dalam perlindungan struktur daging mentah Baety, Annisa Nur; Adawiyah, Aulia Robiatul; Ardiana, Dyta Dwi
Energy Justice Vol. 1 No. 2: (Agustus) 2024
Publisher : Institute for Advanced Social, Science, and Sustainable Future

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.61511/enjust.v1i2.2024.1288

Abstract

Background: Meat is one of the important food sources to meet nutritional needs, especially protein. Improper storage of meat can cause microbes that cause meat to rot quickly. Findings: In the Indonesian food industry, meat storage generally still uses synthetic polymer plastic that is difficult to decompose by soil microbes and can pollute the environment. The purpose of writing this scientific paper is to overcome problems in the food industry, especially in the quality of raw meat that is easily rotten due to improper packaging. Methods: The method of writing this paper is by conducting a literature search from data and information contained in books, scientific journals, and several libraries that can be used as relevant sources. Data and information are taken by collecting data as reference materials and analysis, then the information is processed using a descriptive analysis method based on secondary data to be developed into a unified material so that a solution and conclusion can be obtained. In this era of industry 5.0, edible film based on xanthan polysaccharide (Xanthomonas campestris) will be very effective, solution-oriented, and help Indonesia in overcoming problems in the food industry. Conclusion: The development of edible film based on xanthan polysaccharide (Xanthomonas campestris) will create an innovation in food packaging that can maintain the quality of raw meat and is environmentally friendly. The next step is to disseminate information to the public regarding environmentally friendly plastic substitute products as raw meat packaging.

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