Available Electrical Energy Research Articles

Assessment of Wind Energy Potential for Small-scale Turbine Deployment at Akwa Ibom State University Community, Ikot Akpaden, Nigeria

As the need for clean energy is expanding, critical evaluation of renewable energy system has become increasingly important to the energy research community and stakeholders. This study examines the wind resource potential at Akpaden community and its suitable for siting wind turbine to support availability of electrical energy, research purpose and for technology innovation. Wind data is collected and tabulated at various time internal with respect to height for seven days. Statistical tool analysis was employed. Results show that there is a little variation in the morning and afternoon wind speed, an overall average of 4.09 m/s wind speed is obtained. The result is modeled into wind equation, at 12 m height, an average power of about 180 W can be obtained in a second. 300 W sizeable wind turbine was suggested for use. Result shows that useful energy can be obtained from wind available in Ikot Akpaden Community, though it is a little affected by height due to obstruction by building and tress, however, the limitations can be overcome when sitting in areas that is free from disturbances.

Hybrid Long Short-Term Memory Wavelet Transform Models for Short-Term Electricity Load Forecasting

To ensure the constant availability of electrical energy, power companies must consistently maintain a balance between supply and demand. However, electrical load is influenced by a variety of factors, necessitating the development of robust forecasting models. This study seeks to enhance electricity load forecasting by proposing a hybrid model that combines Sorted Coefficient Wavelet Decomposition with Long Short-Term Memory (LSTM) networks. This approach offers significant advantages in reducing algorithmic complexity and effectively processing patterns within the same class of data. Various models, including Stacked LSTM, Bidirectional Long Short-Term Memory (BiLSTM), Convolutional Neural Network—Long Short-Term Memory (CNN-LSTM), and Convolutional Long Short-Term Memory (ConvLSTM), were compared and optimized using grid search with cross-validation on consumption data from Lome, a city in Togo. The results indicate that the ConvLSTM model outperforms its counterparts based on Mean Absolute Percentage Error (MAPE), Root Mean Squared Error (RMSE), and correlation coefficient (R2) metrics. The ConvLSTM model was further refined using wavelet decomposition with coefficient sorting, resulting in the WT+ConvLSTM model. This proposed approach significantly narrows the gap between actual and predicted loads, reducing discrepancies from 10–50 MW to 0.5–3 MW. In comparison, the WT+ConvLSTM model surpasses Autoregressive Integrated Moving Average (ARIMA) models and Multilayer Perceptron (MLP) type artificial neural networks, achieving a MAPE of 0.485%, an RMSE of 0.61 MW, and an R2 of 0.99. This approach demonstrates substantial robustness in electricity load forecasting, aiding stakeholders in the energy sector to make more informed decisions.

Estimation of the Availability of Electrical Energy from the Thermal Energy Extracted by Thermoelectric Modules: Case Study in Monterrey, México

This research proposes the utilization of Peltier modules to convert electrical energy from thermal energy to show its potential as a renewable energy source for residential and commercial application. The study, whose results are presented in this manuscript, was conducted in the city of Monterrey, located in the northeast of Mexico. The energy source was tested and analyzed utilizing a set of statistical metrics and further comparison against experimental test results. The Distrito Tec area in Monterrey city is an academic complex and it was chosen for this study, which consisted of the indirect measurement of the average annual heat energy stored within the buildings’ cement structure. The aim was to obtain the annual accumulated electrical power in Wh per year that Peltier modules could provide in Distrito Tec, which is located in a city with solar irradiation levels above the world average. The proposal in this paper could encourage further investigation regarding this energy that is currently waste heat. More specifically, the results of this research highlight the importance of thermoelectric modules and seek to motivate research to improve their properties and make them more efficient and more viable as well. Thermoelectric modules have the potential to be part of the solution to sustainable development as presented in the United Nations SDG-7—ensure access to affordable, reliable, sustainable and modern energy for all.

Analisis Penerapan Metode HIRARC Untuk Meningkatkan Keselamatan Dan Kesehatan Kerja Pada Konstruksi Saluran Kabel Tegangan Menengah (SKTM)

Electricity is a vital aspect of modern infrastructure that supports various human activities. Therefore, the increasing need for electrical energy requires good planning to ensure the availability of electrical energy in the future. The transmission system, especially the Medium Voltage Cable Line (MVCL), plays an important role in distributing electrical energy from generators to consumers. However, MVCL construction involves high-risk work, so it requires special attention to occupational health and safety (OHS). This research uses the HIRARC (Hazard Identification, Risk Assessment, and Risk Control) method to identify and control risks in MVCL construction projects. It is hoped that the results of this research can provide recommendations for improving occupational safety and health as well as efficiency in future MVCL construction projects.

Produksi Biolistrik dengan Microbial Fuel Cell (MFC) dari Bakteri Termofilik

The current availability of electrical energy is not proportional to the large demand. This emphasizes the importance of saving electrical energy. To replace fossil fuel power plants that cannot be renewed. So Microbial Fuel Cells (MFC) is used, which is a technology that is able to convert chemical energy from organic matter into electrical energy through the process of oxidation and metabolism of anaerobic bacteria in electroactive biofilms at the anode. This study aims to determine the production of bioelectricity with Microbial Fuel Cell using consortium thermophilic bacteria on TMM substrate. This research was conducted in November 2023 in the microbiology laboratory, FMIPA, UNP. Data analysis was carried out descriptively by displaying images and graphs. Observation of the development of SSA 16 thermophilic bacteria was carried out for 24 hours by checking the voltage once every 2 hours. And the highest voltage result was 749 mv at the 10th hour of measurement.

Electricity Load Forecasting in East Kalimantan on Religious Holidays Using SARIMA

The availability of electrical energy is one of the main focus in energy security in East Kalimantan. Power outages often occur in East Kalimantan both in weekdays and holidays. Some previous research had conducted to estimate the electricity demand during certain years. However, there are some particular events which are interesting to be carried out. For example, the electricity demands on holiday events such as the religious holidays which are important moment among Indonesian. This research was conducted to find the best model to predict how many electrical loads in East Kalimantan should be prepared by Indonesian’s State Electricity Company (PT PLN) in order to ensure comfortable for communities on religious holidays. Two sample religious holidays have been taken; Eid al-Fitr and Christmas Day, then the forecasting was carried out using SARIMA model on historical hourly data from 2015-2018. The result of this research shown that the best SARIMA model on Eid al-Fitr is SARIMA (0,2,1)(0,1,0)24 with 16,99% of MAPE and the best SARIMA model on Christmas Day is SARIMA (0,2,1)(0,1,0)24 with 8.68%.of MAPE.

Iridium Oxide Nanorods Supported on Sb-Doped SnO2 As Highly Active Oxygen Evolution Catalysts for PEM Water Electrolysis

With the increasing installation of renewable energy generation systems such as solar and wind power, efficient energy storage devices are required to overcome the problem of fluctuations in the availability of electric energy. In particular, the splitting of water by electrolysis to produce storable hydrogen and oxygen appears to be one of the most promising approaches for large-scale energy storage. Proton exchange membrane water electrolysis (PEMWE) has received a great deal of attention due to its ability to respond quickly to renewable energy fluctuations and to operate at high current densities. However, a key limitation of PEMWE is the high cost associated with the use of high loadings of noble metal Ir catalysts at the anode electrode, which is necessary due to the slow kinetics of the oxygen evolution reaction (OER). Therefore, reducing the Ir loading at the OER electrode is essential to realize large-scale applications of PEMWE. This requires the development of highly active OER catalysts to accelerate the reaction or reduce the overpotential. Herein, we report a remarkably active OER catalyst of Ir oxide with nanorod-like structure supported on antimony-doped tin oxide (Sb-SnO2), showing an order of magnitude increase in Ir mass-specific activity than a commercial IrOx catalyst at 1.5 V vs. RHE. We also investigated the temperature dependence of the OER activity, as a way to elucidate the mechanism of enhanced catalysis, from both experimental and theoretical perspectives.The Sb-SnO2 support material (Sb dopant content 4 at.%) with fused-aggregate network structure was prepared by flame pyrolysis method.1 The as-prepared support powder was annealed at 700 oC for 2 h in air using a rotary kiln furnace. Sb-SnO2 supported IrOx nanorods (NRs) catalyst was synthesized by a colloidal method.2 The obtained IrOx NRs/Sb-SnO2 powder was heat-treated at 350 °C in N2 atmosphere for 2 h and at 150 °C in 1% H2 (N2 balance) for 2 h. The Ir loading was determined to be 49.3 wt.% by inductively coupled plasma optical emission spectrometry (ICP-OES). The OER activity was evaluated in 0.1 M HClO4 at 25 to 80 oC using the rotating disk electrode (RDE) technique.2,3 From Figure 1a, it can be seen that the Sb-SnO2 support particles present an interconnected network structure, which is considered to be beneficial to enhance the electron conduction and gas diffusion in the electrocatalytic reaction. On the support, the majority of IrOx nanoparticles are shown to have coalesced, forming rodlike structures. Figure 1b shows OER polarization curves (iR-corrected and normalized to the Ir mass) of the IrOx NRs/Sb-SnO2 catalyst compared to commercial IrOx catalyst (TANAKA Precious Metals). It is clear that the IrOx NRs/Sb-SnO2 catalyst significantly outperforms the IrOx reference catalyst over the entire potential range, and the OER onset potential of the IrOx NRs/Sb-SnO2 catalyst is lower. At 1.5 V (Figure 1c), the IrOx NRs/Sb-SnO2 catalyst exhibits a mass activity (MA) of 0.40 A mg-1 Ir, which is about 10 times higher than that of the IrOx reference catalyst. This dramatically enhanced activity makes it possible to significantly reduce the Ir loading on the anode of PEMWE. Experimental observations and density functional theory (DFT) calculations suggest that the nanorod geometry and strong metal-support interactions may play an important role in lowering the energy barrier for the crucial first step of the OER, thereby enhancing the OER activity. Acknowledgement This work was partly supported by the JSPS KAKENHI (23H02059) and by the project from the New Energy and Industrial Technology Development Organization (NEDO) of Japan.

Techno-economic Analysis and Optimization of Renewable Energy Forecasting at Universitas Jenderal Achmad Yani

The availability of electrical energy ensures operational sustainability in everyday life, including the educational environment. The possibility of easier renewable energy installation encourages the goal of growing the installation to be affordable. Universitas Jenderal Achmad Yani is one of the campuses that has the capacity to use renewable energy and has a role in environmental awareness in accordance with the university's future vision. In light of this, a hybrid photovoltaic (PV), diesel, and battery plant design is presented as an alternative power plant to supplement conventional energy sources. However, it is critical to examine the long-term capital and profit estimations that must be considered. The hybrid plant is proposed in two configurations, grid-connected and off-grid. In this paper, modeling and simulation are performed using Net Present Cost (NPC) prices from the Ministry of Energy and Mineral Resources (MEMR) rooftop PV installation planning guidelines and inflation estimations from the Republic of Indonesia's Ministry of Finance. Furthermore, until the contribution of energy generated in the simulation is displayed, the production and consumption of electrical energy required for the selected building instances are generated. Hybrid plant modeling has been completed at Universitas Jenderal Achmad Yani’s Faculty of Health Sciences and Technology (FHST) and Rectorate buildings. According to the simulation results, the NPC cost for the next 25 years is anticipated to be Rp 1,047,534,000, with a total electrical energy production of 729,807 kWh/year and a renewable energy contribution >91.4%. Furthermore, from a technological and economic standpoint, a grid-connected hybrid generation system is advocated

KAJIAN TEKNOLOGI GASIFIKASI BIOMASSA/SAMPAH UNTUK PRODUKSI SYNGAS DAN LISTRIK BERKELANJUTAN

In this modern era, electrical energy is the most needed energy. Because a lot of equipment is powered by electricity. As a result, it must be balanced in relation to the availability of electrical energy. To provide enough electrical energy, a power plant is required. One of the promising technologies in the future is the downdraft gasification technology, where biomass can be used as a very abundant fuel in Indonesia. Rice husk, coconut fiber, coconut shell, palm oil waste, and urban waste are some of the biomass materials used. Based on the results of a literature review regarding the composition and calorific value of the syn-gas produced, the easiest biomass to gasify is a combination of palm fronds/palm fronds (OPF) and palm kernel shells (PKS) with a ratio of 20/80. With this composition ratio, it is possible to produce syn-gas with a composition of 21% CO, 3% CH4, and 17% H2 with a heating value of 5850 kJ/m3. It can be concluded that the type of biomass feedstock greatly influences the composition and calorific value of the syn-gas produced. Because each type of biomass produces different syn-gas characteristics.

Long-term forecasting for growth of electricity load based on customer sectors

The availability of electrical energy is an important issue. Along with the growth of the human population, electrical energy also increases. This study addresses problems in the operation of the electric power system. One of the problems that occur is the power imbalance due to scale growth between demand and generation. Alternative countermeasures that can be done are to prepare for the possibility that will occur in the future or what we are familiar with forecasting. Forecasting using the multiple linear regression method with this research variable assumes the household sector, business, industry, and public sectors, and is considered by the influence of population, gross regional domestic product, and District Minimum Wage. In forecasting, it is necessary to evaluate the accuracy using mean absolute percentage error (MAPE). MAPE evaluation results show a value of 0.142 % in the household sector, 0.085 % in the business sector, 1.983 % in the industrial sector, and 0.131 % in the total customer sector.

PERANCANGAN SISTEM PLTS OFF-GRID KAPASITAS 100 WP SEBAGAI SUMBER ENERGI ALTERNATIF CHARGING 220 V DI DAERAH TERDAMPAK BENCANA SEMERU

The availability of electrical energy needs in Indonesia causes the energy reserves on earth to decrease. This encourages the government to look for alternative energy sources that aim to produce large enough alternative energy with good quality and quality, but do not have an impact on the environment. There are many alternative energies that can be developed in Indonesia, one of which is the Off Grid Solar Power Generation System (PLTS), which is an alternative power generation system for remote areas or rural areas that are not covered by the PLN electricity network. The difficulty of access to the location makes the investment costs for the development of conventional electricity networks large, as well as low operational and maintenance costs due to the difficulty of transportation routes to the location, as was done in the design of equipment in the Semeru disaster post area. To use these solar panels, a Solar Charger Controller (SCC) of 30 A is needed then PLTS is used with an Off-Grid configuration, a generation capacity of 100 Wp, a 1×35 Ah battery, and an Inverter 1000 W and LM 2596. From the results of the study, it was found that The solar cell at 15.00 produces an output voltage of 17.78 V and an output current of 4.46 A. The SCC produces an output voltage of 12.3 V and a current of 3.8 A. The battery output current depends on the intensity of sunlight that occurs when The solar panel is charging the battery.

Temperature Dependence of the Alkaline Oxygen Evolution Reaction Catalyzed By Amorphous/Crystalline Ni-Co Oxides

As the installation of renewable energy power generation systems such as solar and wind power increases, efficient energy storage devices are needed to overcome the problem of fluctuations in the availability of electrical energy. In particular, water splitting by electrolysis to produce storable hydrogen and oxygen appears to be one of the most promising approaches for large-scale energy storage. However, the efficiency of water electrolysis is greatly restricted due to the high overpotential required for the anodic oxygen evolution reaction (OER). Therefore, effective catalysts are needed to accelerate the reaction, reduce overvoltage, and increase energy conversion efficiency. Among various OER catalysts, nickel-cobalt oxides have received enormous attention due to their low cost and high OER activity in alkaline electrolyte. A better understanding of the OER kinetics is essential for accurate activity/durability predictions and the development of next generation OER catalysts. In this work, we synthesized a series of Ni-Co oxides with tunable amorphous/crystalline surface structures, with particular emphasis on the temperature dependence of the OER catalysis, as a way to elucidate the catalytic reactions, from both experimental and theoretical perspectives.The Ni-Co oxide was synthesized by the flame oxide-synthesis method.1 The as-prepared sample was treated in an oxidizing atmosphere (20% O2/N2) at elevated temperatures (from room temperature to 300 °C) without changing the Ni-Co-O atomic composition. Based on the measured composition and treatment temperature, the obtained three catalysts were denoted as Ni0.8Co0.2O-RT, Ni0.8Co0.2O-100, and Ni0.8Co0.2O-300. The OER activities were evaluated in 1 M KOH at 20 to 80 oC by use of the rotating disk electrode (RDE) technique.2 It was found that the increase in O2-treatment temperature led to increased structural order or crystallization of the oxide phase, i.e., crystallinity Ni0.8Co0.2O-RT < Ni0.8Co0.2O-100 < Ni0.8Co0.2O-300, as confirmed by XRD measurement. Figure 1a showed that the Ni-Co oxide materials presenting an amorphous or poorly crystalline oxide phase showed higher activity than their crystalline counterparts, which was correlated with a negative shift in the oxyhydroxide formation peak potential (inset of Figure 1a). The OER activation energy, extracted from temperature dependence of OER currents, also decreased with decreasing the crystalline oxide phases (Figure 1b). Thus, efficient OER was demonstrated to be associated with facilitated formation of oxyhydroxide species during electrochemical anodization. We proposed, based on density functional theory calculations, that the amorphous or disordered structure of the oxide top surface layers renders the surface geometry energetically favorable for the crucial step O + OH → OOH, which significantly accelerates the OER activity.This work was partially supported by funds for the JSPS KAKENHI (20H02839), and the project from the New Energy and Industrial Technology Development Organization (NEDO) of Japan.[1] K. Kakinuma, M. Uchida, T. Kamino, H. Uchida, and M. Watanabe, Electrochim. Acta, 56, 2881 (2011).[2] G. Shi, T. Tano, D. A. Tryk, A. Iiyama, M. Uchida, and K. Kakinuma, ACS Catal., 11 , 5222 (2021). Figure 1

Power Management and Power Quality System Applied in a Single-Phase Nanogrid

This work aims to present an electrical power management system, between a photovoltaic generation system and a battery energy storage system, by using a low-power dual-stage microinverter connected to the electrical distribution network, configuring a nanogrid. The presented system is capable of performing the active power injection of the photovoltaic arrangement, increasing the availability of electrical energy through a maximum power point tracking algorithm. The system is also able to manage the processes of the charge and discharge of the battery system, where the energy storage system will serve as grid support when renewable power is not available. Furthermore, to ensure the quality of electric energy the proposed microinverter also has the characteristic of parallel active filter for suppression of harmonic currents and reactive compensation of local load current, ensuring the quality of electric energy. As a result, this work presents the system topology, modeling and control of electronic converters, the management strategy with its modes of operation and the results of numerical validation of the proposed system.

Small-Scale Energy Generation for Remote Rural Areas using Solar-Powered Compressed Air Storage System

Energy reach in the rural areas is still of major concern today especially in developing nations. Small-scale energy generation with stored compressed air is the focus of this work towards solving the energy deficit in remote rural environments through renewable sources. The method involves an experimental setup that harnessed energy from the sun through solar PV for isothermal compression and expansion of an air storage system to gain the advantages of low cost, longevity, and environmental friendliness of air storage in small scale electrical power generators. Results from a small, scalable, artificial air storage system of 360m3 show that one charge results in approximate temperature loss of 29oC for compression and 10oC for expansion (in a single cycle). A pressure charge of about 6bars from a compressor speed of 300rpm was also obtained and was able to maintain a constant alternator speed of 2500rpm on no load to produce electricity at 230Vac during expansion. When advanced and standardized, the air storage could provide a medium for cheap electrical energy storage for small scale renewable sources and a means for electrical energy availability in remote rural environments.

Impact of OEI requirement on parallel hybrid electric turboprop regional aircraft optimization

PurposeParallel hybrid electric (HE) propulsion retrofit is a promising alternative to reduce fuel burn of aircraft operating on short regional flights. However, if the batteries are depleted at the end of the mission, the hybrid powertrain designs with downsized gas turbines (GTs) and additional electric motors might not meet the one-engine inoperative (OEI) missed approach climb performance required by the certification. Alternatively, hybrid designs using the original full-size GT can perform one engine climb without electric assistance. This paper aims to evaluate the impact of overshoot climb requirements on powertrain design and performance comparing the two design approaches.Design/methodology/approachAn aircraft-level parametric mission analysis model is used to evaluate aircraft performance combined with an optimization framework including multiple constraints. An indirect approach using metamodels is used to optimize powertrain sizing and operation strategy.FindingsConsidering OEI climb requirements, no benefits were found using a design with downsized GTs. Equivalent fuel burns were found for hybrid designs that keep the original size GTs, but do not require electric energy for the OEI overshoot at the end of the mission. Then, it is recommended to size the GT to maintain the emergency climb capabilities with no electric assistance to ensure power availability regardless of remaining battery energy.Originality/valueThis work introduces a new perspective on parallel HE sizing with consideration for the dependency of power capability at aircraft level on the electric energy availability in case of critical mission scenarios such as overshoot climb at the end of the mission.

Coal and natural gas energy policy for Indonesian electricity security

Electrical energy is very important for national security, so it is important for every country to ensure the availability of electrical energy. The majority of power plants in Indonesia use coal and natural gas energy. The availability of raw materials for electricity generation in Indonesia is threatened because of the policy of increasing the number of exports of raw materials. This study examines the policy on the availability of coal and natural gas energy as an important instrument in national security. This study uses the concept of energy security based on vital energy system vulnerability, availability, accessibility, affordability and acceptability. Then, this study uses qualitative methods to explore policies in managing primary energy, coal and natural gas for the benefit of electricity in Indonesia. The results of this study found that the availability of coal and the accessibility of natural gas are the biggest vulnerability factors for the State Electricity Company as a provider of electricity in Indonesia, in addition to the aspect of price affordability and environmental regime pressures that are factors for the vulnerability of vital energy systems for electricity in Indonesia. &#x0D;

A Complete review of FLC MPPT Technique and Comparison with INC Technique

Abstract: In recent years, all around the world, considerable technological growth has been observed to improve the availability of electrical energy in the most ecological way. Under partial shading conditions, maximum power point tracking techniques track the point at which full power can be taken out. Thus the net efficiency of a photovoltaic system is improved. This paper evaluates, methods such as incremental conductance (INC) and fuzzy logic controller (FLC) are evaluated. The simulation results obtained are developed under the software MATLAB / Simulink. Both techniques (INC) and (FLC) are used with a boost DC / DC converter and a load. Theseresults show that the fuzzy logic controller is superior to and faster than the conventional incremental conductance (INC) technique in dynamic response and steady-state in regular operation. Keywords: MPPT; PV; technique INC; technique FLC; Boost DC/DC.

ANALISIS PERFORMA TURBIN PELTON SUDU SEGITIGA DENGAN VARIASI SUDUT SEMPROT NOSEL

The availability of electrical energy in Indonesia is a very important factor in encouraging development. Increased development, especially in the industrial sector in the form of factories and home industries, continues to grow rapidly. These developments include economic and population growth, so that the need for electrical energy continues to increase. The Pelton turbine is an electrical energy generator that utilizes water as a propeller or bucket on the rotating wheel of the Pelton turbine. So that, it is expected as an alternative to provide electrical energy needs, especially in the industrial sector. This study aims to determine the effect of variations in the angle of the nozzle spray on the triangular blade on the performance of the Pelton turbine. The variations of the nozzle spray angle include 30º, 45º, and 90º. Each nozzle spray angle is varied to the valve opening angle of 60º, 75º, 90º with lamp loads of 0, 5, 10, 15, 20, 25 Watt. Based on the results of this study, it is proven that the nozzle spray angle of 90º has the best results at a valve opening angle of 90º and a lamp load of 15 Watt which produces a generator power of 6.784 Watt with an efficiency of 54.04%. Keywords— Pelton turbine with triangular blade, nozzle spray angle, valve opening angle, generator power, efficiency.

Socialization and Training of Solar Power Generation (PLTS) at SD Negeri Tambakharjo Semarang

SD Negeri Tambakharjo Semarang uses PLN electricity with low installed power. The school is located in an area that has a total photovoltaic output power and solar radiation intensity of 1,486 Mwh/year and 1953.3 Kwh/m2/year. The average output power per day of photovoltaic (solar panels) in October and November 2021 was 4551 Wh and 3778 Wh. Therefore, the purpose of community service is to socialize the use of solar power plants (PLTS) through learning activities (education) and solar pv training for students and school teachers. The methods used in this activity are divided into three stages. In the first stage, field observations were carried out to find problems related to the availability of electrical energy in schools. In the second stage, the implementation of community service includes the delivery of solar panel material with lectures, demos, and solar power plant system designs in schools. In the third stage, it is the stage of evaluation or feedback by providing questionnaires to participants. The results of this service activity provide information data on understanding of solar panels and batteries in the good category. For practical activities, it needs to be improved to be taught for students in grades 5 and 6, so that solar pv props are indispensable in the school.

Impact of Relocating the National Capital on the Projection of Electrical Energy Consumption: a Case Study in East Kalimantan Province, Indonesia

The availability of electrical energy is one of the crucial parameters in the growth and development of a region. To accelerate Indonesia's economic transformation and change the orientation of development to become Indonesia-centric, the government will move the current capital city to the province of East Kalimantan. Various policies have been drawn up, including the plan to relocate civil servants. The increase in population and economic mobility will have an impact on the demand for electrical energy. This research uses LEAP software, where the approach method used to calculate the projected electrical energy demand is the end-use method. There are three scenarios for projecting electricity demand, that is business as usual (BAU), moderate scenario (MOD), and optimistic scenario (OPT). MOD and OPT are scenarios with the impact of moving the national capital. The projection results for the 2022-2035 period show that the consumption of electrical energy in each scenario increases every year. The BAU scenario grew by 8.11%, the MOD scenario by 9.09%, and the OPT scenario by 9.64%. Cumulative energy consumption for all customer sectors in 2035 in the BAU scenario will reach 13,760 GWh. The MOD scenario is 15,899 GWh, and the highest energy consumption in 2035 is in the OPT scenario which reaches 17,171 GWh.