Production Of Energy Resources Research Articles

Development of Trade-Econimic Relations between Azerbaijan-EU Countries in the Field of Natural Gas Supply

The research work is devoted to the analysis of mutual relations between the European Union and the Republic of Azerbaijan in the field of gas supply. In addition, the short-term and long-term measures implemented by the European Union countries in response to the changes in the political arena in recent times were reviewed. The relevance of the topic is related to the opening of economic and transport communications after the Second Karabakh war. The region is an important link between Asia and Europe, and Azerbaijan is an important energy partner of the EU as an exporter of oil and natural gas. In addition, considering the existing gas production potential of the Republic of Azerbaijan, the development of this field is a very important field for the country’s economy. The article focuses on the directions of cooperation of the parties in the matter of production and transit of energy resources. The main result is that it is designed as a framework that allows the two parties to develop their relations in the form of mutually beneficial projects based on market principles.

Optimization of VAWT installation with spatial and temporal complexity considerations

The constant need for fuel to meet the commercial sector’s ever-increasing demand has driven researchers to discover and optimize renewable energy resources, paving the way for sustainable production of reliable and clean energy resources. The goal of the current work is to close the gap in process parameter optimization needed to convert wind energy wake from traffic on highways into electrical energy utilizing vertical-axis wind turbines (VAWTs). The energy output from the VAWT is analyzed to investigate how it is impacted by the variations in multiple parameter settings. Using the central composite design (CCD), a three-level four-factor array was used to investigate the following parameters: VAWT vertical distance (VD) and horizontal distance (HD) as continuous parameters, while road side (S) and location (L) of VAWT as categorical parameters. To find the most important parameter, response surface methodology (RSM) optimization and an analysis of variance (ANOVA) test are performed. L accounts for 66.67% of the total variable, with S coming in second with 51.80%. Using the best results from RSM and ANOVA, a confirmation test is run, and the results show yields of 88.75% ± 0.05% and 87.5% ± 0.05%, respectively. Therefore, RSM and ANOVA can be utilized equally for optimization at the same VAWT design. Lastly, the findings of the economic and environmental evaluation demonstrate that, in comparison to the basic settings, VAWT operating at optimal settings can save up to 180% and 200% more energy and reduce carbon emissions, respectively.

ENERGY MANAGEMENT: NEW PRIORITIES OF THE 21ST CENTURY

The development of management methodology and the concept of energy management in modern conditions of transforming the energy sector by the requirements of the carbon-free economy are considered. New qualitative features and new areas of application of energy management and energy management systems (EMS) in the implementation of the energy transition and implementation of the Smart Grid concept have been revealed. It has been established that modern energy management is a proactive, organized, and systematic coordination of the purchase, transformation, distribution, and use of energy to meet requirements, taking into account environmental and economic goals. In contrast to the formation of the EMS according to the ISO 50000 series of standards, today the construction of the EMS is becoming more relevant, which provides systemic (complex) optimization of the parameters, structure, and modes of various technical objects according to a set of technical, economic and environmental criteria. It is shown that EMS is much more than a simple technical solution for monitoring the parameters and state of energy systems. With comprehensive forecasts of energy demand and supply, this system takes energy management to a completely new level, allowing operators of facilities (enterprises, buildings, and smart networks and systems) to determine the strategic direction of energy management, implement it, and achieve both energy efficiency and energy availability and environmental (social) acceptability. The components of EMS for Smart Grid are characterized, in particular: monitoring (actual energy production, actual energy demand, state of charge of energy storage, price uncertainty); forecast (energy production, energy demand, mobile data storage, uncertainty); power quality management (loss minimization, power quality indicators, and reliability/comfort); planning/dispatch/cost (operating costs, reduction of GHG emissions, profit maximization). It is proposed that a promising direction is to consider the SEM as a system of information and communication technologies, which at the system level is combined with power energy processes used by operators of electric power systems and networks to monitor, control, and optimize the productivity of production, transmission, and consumption of energy resources in systems of various hierarchical levels. level (as UES of Ukraine, regional and local systems, on specific energy facilities or individual energy technologies, etc.). Based on the analysis of prospective areas of application of EMS at energy sector facilities, modern areas of scientific and technical research in the construction of energy management systems for energy, electric power, and electrotechnical systems, which are practical to carry out in Ukraine, have been determined.

Examining energy democracy and energy citizenship in advancing participatory energy transitions: A comprehensive review

The worldwide issues of climate change and energy access have pushed the transition to sustainable and equitable systems of energy to the forefront of global awareness. Energy democracy is a term used by the movement for environmental justice that unites the shift to renewable energy sources with initiatives to democratize energy resource production and control. Citizenship in the energy sector entails the ability to engage in systems of energy as well as positively influence the energy transition. The energy transition is related to the worldwide transformation of the energy sector from dependence on fossil fuels, such as oil, natural gas, and coal, to the use of renewable energy sources including solar as well as wind power, and the adoption of lithium-ion batteries. To give a comprehensive grasp of the concept of energy citizenship and democracy, this review investigates a wide range of studies, policy assessments, and theoretical frameworks. Data accessibility, cultural differences in involvement, and the difficulty of balancing the interests of many stakeholders in accomplishing and sustainable energy transitions might be its main obstacles. Here, we utilized safe, sustainable, affordable energy systems in energy democracy and various modes of Participatory Energy Transitions (PEDs) in energy citizenship. Then, using PEDs as a tool in urban energy transition. Energy democracy in social groups, India's energy citizenship, and energy transition in India are the obtained results. The review highlights the significance of education, awareness, and inclusiveness in advancing energy democracy and citizenship. As a conclusion, this study makes a significant contribution to the expanding canon on energy transition by analyzing and synthesizing the core ideas behind energy citizenship and energy democracy.

Application of the multi-criteria analysis method mairca, spotis, comet for the optimisation of sustainable electricity technology development

The development of sustainable electricity technology is of utmost importance in addressing the increasing energy demand while mitigating greenhouse gas emissions. Fossil fuel-based electricity generation is the primary contributor to air pollution and climate change, necessitating a shift towards renewable energy sources. The efficient production, distribution, and utilization of energy resources, along with ensuring affordable energy access and environmental sustainability, are key policy objectives for any country's energy sector. However, assessing sustainable electricity technologies is a complex task due to the diverse range of evaluation criteria and impacts associated with the practical implementation of these solutions. To overcome this challenge, this study proposes a multi-criteria decision-making (MCDM) approach to select the optimal solution for the development of sustainable electricity technology. The study employs several reliable methods, including MAIRCA, SPOTIS, COMET, and the CRITIC weighting method, to perform ranking evaluations. Based on this, an evaluation Table of criteria using linguistic variables is constructed. Furthermore, a ranking of methods for developing sustainable electricity technology is established by combining MCDM optimization methods. The results indicate that future energy policies should prioritize sustainable energy technologies, particularly water and solar thermal solutions. These findings have significant implications for development policymakers as the transition towards a sustainable energy system becomes increasingly crucial. In the future, the findings of this research can be further developed on a regional level, enabling the identification of the most appropriate energy technologies for specific regions based on their unique characteristics and requirements

Integration of advanced technologies to improve the efficiency of gas condensate field development

In the context of constantly growing global energy demand and rapid changes in the energy sector, the study and implementation of advanced technologies in the development of gas condensate fields is of critical importance. The purpose of this study is to investigate methods to increase the efficiency of production and sustainable use of energy resources by optimising the development of gas condensate fields using advanced technologies. The methods used include analytical method, classification, functional method, statistical method, synthesis. Within the framework of this study, the technological aspects of using wells of the Altyguyi gas condensate field were investigated and extensive laboratory and field analyses were conducted aimed at the correct implementation of the double injection method for simultaneous extraction of gas from one reservoir and oil from another, with an emphasis on their contribution to the development of wells through this approach. The paper also considers aspects of operation and technology, including hydrodynamic and thermohydrodynamic studies, when analysing well designs considering compatibility intervals and mining and geological drilling conditions, based on predictive curves of reservoir pressure and rock fracture pressure. As a result of the analyses, studies and calculations, the implementation of the method of intensification of gas condensate field production using the oil and gas approach of dual injection in one well was substantiated. This approach is focused on reducing capital investments and accelerating the development process. The practical significance of this research lies in the development and implementation of innovative technologies to optimise the production processes of gas condensate fields, which contributes to improving the efficiency of hydrocarbon production and promotes the sustainable use of energy resources

Multi-objective two-stage optimization scheduling algorithm for virtual power plants considering low carbon

Abstract With the continuous growth of energy demand, the importance of developing and utilizing low-carbon energy is becoming increasingly prominent. In this context, virtual power plant technology has been proposed. It is a technology for integrating, coordinating and optimizing distributed energy resources, which has significant effects in improving energy utilization efficiency and reducing carbon emissions. This article proposed a virtual power plant scheduling method based on multi-objective two-stage optimization scheduling algorithm considering low carbon. This method first determines the production and consumption of various energy resources in the virtual power plant, including wind power, thermal power and hydropower. Then, with the goal of minimizing costs and reducing carbon emissions, multi-objective optimization algorithms are used to allocate and schedule energy resources in the virtual power plant. On this basis, a two-stage optimization strategy was introduced, combining long-term optimization and short-term scheduling to adapt to energy allocation and scheduling needs at different time scales. The experimental results indicate that this method can effectively improve the energy utilization efficiency and economy of virtual power plants, and reduce carbon emissions.

Analysing the Connection between Economic Growth, Conventional Energy, and Renewable Energy: A Comparative Analysis of the Caspian Countries

The objective of this research paper is to apply a mathematical model to estimate and predict the economic growth of the Caspian countries in the period from 1995 to 2022. We use multiple regression by applying the OLS method to estimate the impact of global oil price, energy resource production per capita, trade, and renewable energy on GDP per capita. The mathematical approach uses fixed and random effects models to assess the overall impact of the independent variables on economic growth in this region and over the period analysed. This study also aims to investigate whether the explanatory variables are cointegrated in the long run; as such, we carry out several mathematical cointegration tests, namely the Pedroni and Johansen tests. The mathematical analysis is completed by the estimation of short- and long-run parameters using the stochastic VAR/VEC models, the impulse response function, and the causality test to assess economic growth in this region. This study’s main finding is that GDP per capita is increasingly influenced by its previous values, which is confirmed by considering lag 1 and lag 2. The results of the Granger causality tests identify several bidirectional relationships between GDP per capita and oil and gas production. These relationships are clearly positive evidence of the growth trend and progress of economic activity in the Caspian region. The practical implications of the study aim to promote and support the use of renewable energy sources. In this sense, policymakers in the Caspian countries should create favourable conditions for the transition to a green economy. An important aspect is the efforts of the government authorities to make their policies more environmentally friendly, as decarbonisation is a good practice in the current context of sustainability and related choices. As the Caspian countries are heavily dependent on conventional energy production, it is essential for them to increase their export earnings from energy resources via diversifying and strengthening new energy opportunities and partnerships.

Customized Microenvironments Spontaneously Facilitate Coupled Engineering of Real-Life Large-Scale Clean Water Capture and Pollution Remediation.

Harnessing abundant renewable resources and pollutants on a large scale to address environmental challenges, while providing sustainable freshwater, is a significant endeavour. This study presents the design of fully functional solar vaporization devices (SVD) based on organic-inorganic hybrid nanocomposites (CCMs-x). These devices exhibit efficient photothermal properties that facilitate multitargeted interfacial reactions, enabling simultaneous catalysis of sewage and desalination. The localized interfacial heating generated by the photothermal effect of CCMs-x triggers surface-dominated catalysis and steam generation. The CCMs-x SVD achieves a solar water-vapor generation rate of 1.41kg m-2 h-1 (90.8%), and it achieves over 95% removal of pollutants within 60min under one-sun for practical application. The exceptional photothermal conversion rate of wastewater for environmental remediation and water capture is attributed to customized microenvironments within the system. The integrated parallel reaction system in SVD ensures it is a real-life application in multiple scenarios such as municipal/medical wastewater and brine containing high concentrations. Additionally, the SVD exhibits long-term durability, antifouling functionality toward complex ionic contaminants. This study not only demonstrates a one-stone-two-birds strategy for large-scale direct production of potable water from polluted seawater, but also opens up exciting possibilities for parallel production of energy and water resources.

Formation of legal support of climate-protective farming in Ukraine: problems under martial period

Formation of legal support of climate-protective farming in Ukraine: problems under martial period

Hybrid geothermal energy and hydrocarbon resources production by repurposing horizontal wells in shale gas reservoirs in Horn River Basin, British Columbia, Canada

The production of geothermal energy from the depleted oil and gas reservoirs could represent one of the practical pathways of the clean energy transition for the hydrocarbon energy industry. In this study, a new strategy for repurposing oil and gas wells into geothermal energy production system is proposed to co-produce hydrocarbon and geothermal resources during the transition. At a certain stage in a hydrocarbon production system of fractured horizontal wellbores, one vertical injection well is added to connect to the end of the horizontal wellbores to form a U-loop system with open fractures in the lateral part. Cold water is injected through the injection well, transported along the U-loop system, and geothermal energy is produced along with natural gas for utilization. Natural gas production continues as long as the pressure of the horizontal well remains lower than the reservoir pressure. An example application case from a typical shale gas production system in the Horn River Basin of British Columbia, Canada has been examined in this study. The results show that reduction in cumulative gas production is limited if the injection well is added at a middle or later stage. The outlet temperature from this system behaves like those in a closed-loop geothermal system and could be stable for several decades of operation. Although the time of conversion is sensitive to gas production, it does not affect the bottom hole temperature much. The water flow rate does not affect the cumulative gas production but considerably affects the formation temperature. The horizontal length of the fractured wellbore will significantly affect the gas production performance and geothermal energy output. Fracture length and permeability have critical impact on gas production but less influence on geothermal energy recovery.

Co-optimization of integrated energy systems in the presence of renewable energy, electric vehicles, power-to-gas systems and energy storage systems with demand-side management

AbstractWith the widespread penetration of renewable energy sources and energy storage systems, the problem of energy management has received increasing attention. One of the systems that network owners consider today is the power-to-gas (P2G) system. This system causes surplus electricity generated from renewable energy resources or batteries in the network to be converted into gas and sold to the gas network. Two reasons for the existence of gas distributed generation resources and P2G systems cause the two power and gas networks to interact. Energy management and profit making considering these two networks, as a co-optimization of integrated energy systems, is a topic that has been discussed in this study to achieve the best optimal answer. Since the production of renewable energy resources and the purchase price of energy are uncertain, a scenario-based method has been chosen for modelling. Demand-side management is also one of the important problems in optimal operation of the electricity network, which can have a significant impact on reducing peak load and increasing profits. In this paper, a mixed-integer quadratic programming model for co-optimization of electric distribution and gas networks in the presence of distributed generation resources, P2G systems, storage facilities, electric vehicles and demand-side management is presented. The 33-bus distribution network is intended to analyse the proposed model. The results of different scenarios show the efficiency of the proposed model. Several key points are deduced from the obtained results: (i) demand-side management is able to reduce the peak load of the network, (ii) the presence of renewable resources and batteries can cause the network to convert excess electricity into gas and sell it to the gas network in the market and (iii) distributed generation can reduce the purchase of energy from the upstream network and cause a 36% reduction in the cost function.

On Net Energy Metering X: Optimal Prosumer Decisions, Social Welfare, and Cross-Subsidies

We introduce NEM X, an inclusive retail tariff model that captures features of existing net energy metering (NEM) policies. It is shown that the optimal prosumer decision under NEM X obeys by a two-threshold policy. The threshold policy yields three household consumption modes: (a) the net-consuming mode where the prosumer consumes more than its behind-the-meter distributed energy resource (DER) production when the DER production is below a predetermined lower threshold, (b) the net-producing mode where the prosumer consumes less than its DER production when the DER production is above a predetermined upper threshold, and (c) the net-zero energy mode where the prosumer’s consumption matches its DER generation when its DER production is between the lower and upper thresholds. Both the thresholds are obtained in closed-form and computed apriori. Next, we analyze the regulator’s rate-setting process that determines NEM X parameters such as retail/sell rates, fixed charges, and price differentials in time-of-use tariffs’ on and off-peak periods. A stochastic Ramsey pricing program that maximizes social welfare subject to the revenue break-even constraint for the regulated utility is formulated. Performance of several NEM X policies is evaluated using real and synthetic data to illuminate impacts of NEM policy designs on social welfare, cross-subsidies of prosumers by consumers, and payback time of DER investments that affect long-run DER adoptions.

An innovative technique for optimization and sensitivity analysis of a PV/DG/BESS based on converged Henry gas solubility optimizer: A case study

AbstractThe construction of hybrid power plants with renewable resources can bring significant economic benefits if it is evaluated economically and technically. The present study uses a novel optimum methodology for designing a combined solar/battery/diesel system in Yarkant, Xinjiang Uyghur Autonomous Region of China. In the desired system, the green energy combined system is designed to reduce the use of diesel generators. The diesel generator has been used in the photovoltaic, diesel, and battery to support green energy resources and batteries, as well as function as a backup generator for critical times whenever the production of green energy resources is low or the load demand is high. The amount of CO2 emitted, the probability of load shortage and the system cost on yearly basis are the major goals in the process of optimization. Here, the single‐objective problem is created by using the ε‐constraint technique to combine the many objectives. An improved Henry gas solubility optimizer handles the problem of optimization. To demonstrate the superiority of the strategy, a comparison is conducted between the simulation outcomes of the offered system, HOMER, and particle swarm optimizer ‐based optimum systems from the literature. The sensitivity of each parameter is also examined using sensitivity analysis.

Determining the financial performances of BIST-100 energy companies by TOPSIS method

Purpose - The purpose of this study, Borsa Istanbul 100 (BIST100) of the financial performance of energy companies traded multi-criteria decision making methods, TOPSIS (Technique for order preference by Similarity to ideal solution) method is measured. Methodology - For this purpose, 5 energy companies traded in BIST in 2021 and whose data are regularly accessed have been included in the scope of the study. The annual balance sheet and income statements of the companies were used in the study. The balance sheets and income statements of the companies within the scope of the research for the year 2021 were taken from the official website of the Public Lighting Platform (KAP). During the period when the application part of this study was conducted, the data of the year 2022 could not be used due to the fact that the data of the year 2022 has not yet been published. The obtained data were measured by TOPSIS (Technique for Order Preference by Similarity to Ideal Solution) method, which is one of the multi-criteria Decisionmaking methods, and the performance of the companies were analyzed and compared among themselves. Findings - Ipek Natural Energy Resources Research and Production A. One of the companies included in the study as a result of the analyzes performed by the TOPSIS method.Sh. ((IPEK) was found to be the company with the best data in terms of financial performance in the analyzes carried out in accordance with the criteria included in the evaluation. After this company, the second best company in terms of financial performance is Koza Anadolu Metal Madencilik Işletmeleri A.Sh. He appeared as a (COCOON). Conclusion - In the light of the analyzes carried out in the study; IPEKE company ranked first as the best company in terms of financial performance. Ardın KOZAA of IPEKE company ranked second, ASELS company ranked third, AKSEN company ranked fourth and VESTL company ranked last in terms of financial performance among the 5 companies included in the study. Dec. Apart from these data, it can be said that changing the December period to be based on different studies, using different financial ratios, the degree of importance given to criteria, using other multi-criteria decision-making methods (MSCS) such as MOORA other than TOPSIS may give results that may change the performance ranking. Keywords: BIST-100, TOPSIS, financial performance, energy, MCDMM JEL Codes: C61, M41, M49

Assessing the prospective positioning of the BRICS in the world energy sector

Subject. The study is devoted to the comparison of positions of international unions in the global energy sector. Objectives. The purpose is to identify positions of the BRICS countries in the global energy sector, subject to the planned expansion of the membership of this union. Methods. We performed a comparative analysis of data on reserves, production, and consumption of basic energy resources, and electricity production in the countries of the world. Results. We established that reserves and production of energy resources in the NAFTA countries are higher than in the BRICS and the EU, per capita rates in NAFTA are always higher than those in BRICS and the EU. Conclusions. The availability of energy reserves in the BRICS countries (especially, taking into account the data on potential members of the union) enables these countries to ensure their energy security. The cooperation of the BRICS countries in the future will have an increasingly visible impact on world development.

Influence of climate data quality on predictive accuracy of production and consumption of energy resources by a city

The article provides a list of hazardous climatic phenomena and examples of some of their effects on the constituent structural elements of the power plant. In the framework of this article, the impact of the duration of hot weather on the operation of nuclear power plants is considered. An analysis was made and the stations most susceptible to global climate change in terms of increasing summer temperatures were identified. For the two most representative stations, modeling based on artificial neural networks was performed and conclusions were drawn about an increase in the number and duration of hot days per year. The best forecast result for St. Petersburg NPP is 54.59%, for Kursk NPP - 22.18%. The structure and method of formation of the predictive function are analyzed. Methods are proposed to improve the accuracy of the forecast by varying the discretization value of the initial data, as well as by changing the activation function of the artificial neural network.

Determining the size of batteries and solar sources in a zero cost building using PSO algorithm

The production and consumption of non-renewable energy resources have disrupted the environment's biodiversity cycle. Global climate change, including worldwide warming, has made human life both now and in the future. The construction industry in the world has a significant share in the demand for energy consumption in these challenges. Therefore, the primary purpose of this paper is to implement standards to save and prevent energy loss to control and limit the demand for energy requested from the power network. Constructing a building with self-sufficient energy production that meets its energy needs by producing clean energy becomes more important. It also sells the excess energy to the grid, known as zero energy buildings. In the present paper, the issue is a constrained optimization problem that aims to minimize the total annual cost, including the initial investment cost for PV and batteries and their maintenance costs, as well as the cost of network exchanges. Among the limitations, the proposed model can mention the restrictions governing the battery, such as the limitations of the battery state of charge (SoC). The problem under optimization is a mixed integers nonlinear programming (MINLP) that will be solved by a particle swarm optimization (PSO) algorithm considering the total cost minimization.

Функціональна спрямованість інтегрованого інструментарію економічного механізму підвищення енергоефективності національної економіки

The article analyzes the essence and directions of improving the energy efficiency of the national economy. It is noted that the leading role in this process is assigned to the economic mechanism, which should generally be recognized as an integrated system of means of influencing economic phenomena observed in the process of production, exchange, distribution and consumption of energy resources. It is emphasized that the most important indicator characterizing the efficiency of energy consumption at the macro-level is the energy intensity of gross domestic product (GDP), according to which Ukraine significantly lags behind many countries of the world. Therefore, one of the effective instruments to reduce the energy intensity of the State’s GDP is the use of tax incentives. The functional role of structural elements of the economic mechanism of energy efficiency is disclosed, which are manifested in the following: firstly, the leading place in the system of instruments for implementing energy-efficient policy is occupied by pricing for energy resources, which, unfortunately, is dominated by the cost methodology. Simultaneously, it is necessary to deprive enterprises of the domestic fuel and energy complex of the right to manipulate prices for their products; secondly, in order to implement the energy efficiency policy, it is necessary to form tariffs for energy resources based on the reimbursement of economically justified costs for their production, transportation and delivery to consumers; thirdly, the implementation of strategic goals for the development of energy saving requires significant investments, in particular, targeted loans to finance energy-saving technologies. The necessity of finding and developing new, more effective instruments of the economic mechanism for improving the energy efficiency of the national economy is proved.

ОСНОВНІ АСПЕКТИ ПЕРЕХІДНОГО ПЕРІОДУ МІЖ ПРОМИСЛОВИМИ РЕВОЛЮЦІЯМИ (НА ПРИКЛАДІ ЕЛЕКТРОЕНЕРГЕТИКИ)

The variability of the energy sector was studied in the periods between industrial revolutions, i.e. the restructuring of the system of production, consumption, transportation and supply of energy resources under the influence of a changing external environment. Specific trends were described in mineral extraction after 1900 and shown that the global increase in coal mining and hydrocarbon production from 1900 to 2019 increased the annual production of fossil carbon approximately 20 times, from 500 Mt in 1900 to 6 .7 Gt a century later and to 10.2 Gt in 2019. Because of the asymmetric distribution of minerals, this production led to global oil trade, but the analysis showed that there were significant limits and exceptions where global growth resulted in absorption and reduction of national production or a complete cessation of fuel production. Technical improvements were the most important factors in this cheap and productive extraction, transportation, and processing, as well as increased environmental friendliness. We have shown in the study that there has been a noticeable shift in the direction of higher-quality fuel, that is, from coal to oil and natural gas. The result of this process was the relative decarbonization of global fossil fuel production, while the absolute level of CO2 emissions in the atmosphere increased. In the article, we proposed promising directions and areas that require increased investment due to the needs of increasing the competitiveness of the economy, achieving overall sustainable development and the growth of energy innovations as a favorable factor that ensures the formation of Industry 4.0. We have determined that the development of leading technologies is a promising direction for ensuring the growing consumption of industry in the conditions of Industry 4.0. Technological changes are so powerful that they make our age both the most promising and at the same time full of threats in the history of mankind. The scientific provisions, conclusions and proposals formulated and substantiated by the authors can be applied for further scientific developments and at the legislative level to solve the problem of improving the energy sector in the conditions of the formation of Industry 4.0.