Short list

The project includes two diesel power plants with a unit rating of 2.5 MW, which are used for the transportation of marine gravity platforms for the «Arctic-LNG 2» project in Murmansk. The climatic design of the containerized power plants ensures the operation of the equipment during the transportation of the marine gravity base structures from the Kola Bay to the Ob Bay through the Barents and Kara Seas.

A distinctive feature of the project was the placement of three units at one site: a transformer substation, an uninterruptible power supply, and a diesel generator set. The established energy infrastructure enabled the continuous operation of the vehicle inspection system under harsh weather conditions and ensured the stable performance of the equipment.

The project was implemented for a full-cycle winemaking enterprise. The power plant, based on a Baudouin engine, provides economical energy supply to the production site. The gas power unit is equipped with a heat recovery system that redirects thermal energy for water heating. The control system supports both manual and automatic modes and is equipped with a module for parallel operation of the station with the grid.

The power plant, based on Baudouin engines, supplies electricity to the refrigeration units of the factory where salmon fry are cultivated. Timely project implementation was crucial. INARCTICA is one of the largest producers of aquaculture salmon and sea trout in Russia. Salmon are very sensitive to water temperature, and maintaining it within permissible limits is essential during the fish cultivation process. This is why the project was completed in a record short time of just 4 months.

The energy complex consists of three power plants with a total capacity of 2.1 MW. The gas processing plants where the stations operate are not yet running at full capacity as construction is ongoing. Therefore, there arose a need for the gas power units to operate on natural gas with a significant nitrogen content (up to 50%). The stations successfully manage this task, delivering the required parameters without loss of performance, even with the specific gas composition.

Based on an existing steam boiler with a capacity of 84 tons per hour, an automated system for monitoring and supplying flue gases to a liquid carbon dioxide generator with a capacity of 1000 kg/h was designed and constructed. As a result, the flue gases from the industrial boiler are redirected for technological needs in production. This significantly reduces the volume of harmful substances emitted into the atmosphere.

The gas turbine power plant was commissioned in April 2024. The project is based on the gas turbine engine GTES AG100 ST400, which is a proprietary development of PJSC KADVI. This facility features 100% domestic localization, as all key components of the power plant are manufactured in Russia, ensuring the availability of spare parts and service maintenance. Additionally, 65% of the plant's components are produced at the PJSC KADVI facility.

To achieve maximum autonomy in the operation of oil and gas equipment at the extraction site, energy modules were developed that combine various methods of energy generation. The primary energy source is an autonomous power supply based on a Stirling engine operating on fuel gas produced on-site. Economic benefits are achieved due to the high resource efficiency (2.5 times higher than gas power plants or diesel generator sets) and a reduced volume of scheduled maintenance.

The project includes seven gas power centers for mining based on Weichai engines located at gas fields in the Penza and Saratov regions. The technologies developed by «Power Systems» effectively utilize stranded gas resources by constructing energy centers directly at the wells. This approach lowers the cost of generated electricity and enhances mining efficiency.

The Kovyktinskoye gas condensate field, the largest in Eastern Russia, serves as a key resource base for the «Power of Siberia» gas pipeline, necessitating high standards of independence from imports. The ABKExATM-630 power plants with a capacity of 630 kW are designated for emergency power supply to UKPG and the shift workers’ residential complex, manufactured based on the TM-600 engine, developed in-house. Domestic components were utilized, and the station's control system operates on domestic software, ensuring complete equipment independence from existing sanctions.

The wintering complex of the «Vostok» station is the first modern building in the world constructed at the Earth's «Pole of Cold» This unique project secures Russia's presence in Antarctica. Four 100 kW diesel generators from «Diesel Company» were sent here as part of the «Arctic» project. These generators were commissioned in 2021 and continue to meet operational needs in the coldest place on Earth, where temperatures can drop to -85 degrees Celsius.

The Oymyakon community is referred to as the «Pole of Cold» The average temperature in January is -50°C, with a population of around 500 residents. Therefore, power outages can only occur during the summer. ENELT Group was tasked with upgrading a diesel power station and creating a hybrid power supply system within a short timeframe (from May to November 2024). The commissioned autonomous hybrid energy complex combines a diesel power station (1 MW), a solar power station (231 kW), and an energy storage system (150 kW). Smart heat utilization techniques were implemented in the AHEC.

The diesel power park was commissioned in September 2024, with an electrical capacity of 25 MW and thermal capacity of 66 MW. The main facility consists of a substation adjacent to the main building housing equipment for electricity generation and a boiler house. The energy facility is part of the Chaun-Bilibin Energy Hub and will gradually replace the decommissioned Bilibino Nuclear Power Plant. Initially, the complex will supply the city exclusively with electricity, while the boiler house is planned to be launched in a second phase.

The energy center with a total capacity of 5.4 MW was implemented for the Rodniki Industrial Park in Ivanovo Region. The power complex consists of two power plants that provide electricity and heat to over 300,000 square meters of production and office buildings. The project was executed by the PSM team under a general contract (EPC), from design to commissioning.

The Yekaterinburg Gas Turbine CHP Plant is part of the Sverdlovsk Region’s energy system. The station supplies thermal energy to the production and administrative areas of JSC «Uralelectrotiazhmash.» As part of the technological sovereignty program, the engineering team of JSC «GT ENERGO» completed R&D on developing a magnetic suspension control system. In 2024, the facility was upgraded, replacing foreign technological solutions with proprietary software development.

The oil terminal at the «Bukhta Sever» port is a strategic facility that will facilitate oil transshipment from the «Vostok Oil» fields along the Northern Sea Route and is set to become the largest in Russia by 2030. The power center, commissioned in April 2024, provides continuous energy supply to the terminal. The energy center comprises seven high-voltage diesel generators; an operator's module with two workstations managed by a proprietary SCADA system developed by TSS; and a block-modular 10 kV switchgear of «SEVER» design, also of domestic production.

The energy center provides electrical and thermal energy to both its own production and nearby enterprises. The facility received and fulfilled the technical requirements from the grid company to feed power into the grid (up to 4.3 MW). Since a large part of the energy center operates in «island» mode, issues arose with rapidly variable consumer loads. The engineers from the competing company found a solution by developing load modules with a capacity of 3 MW using fast-acting relays and designing and implementing software to control these load modules.

This is the first solar power plant in Russia equipped with a solar tracking system, featuring 30,000 high-efficiency photovoltaic modules and 255 single-axis trackers that increase energy production by 20-25%. It includes a weather station for monitoring conditions and an automatic protection system against strong winds. The projected annual generation is 13 million kWh, which will reduce carbon dioxide emissions by 4,500 tons.

Located on a 12-story academic building, this solar power station utilizes vertically mounted solar panels to supply energy for the building’s lighting system. The project includes the development and implementation of a monitoring system that evaluates the efficiency of the facade solar power station under Ural conditions. In just two months of operation, the station supplied over 14,000 kWh of electricity to the grid, exceeding the building's needs by 1.5 times. The station was commissioned in August 2024 and may serve as a model for other facilities at UrFU and buildings in Sverdlovsk Region.

Developed in collaboration with SOLLERS, this electric vehicle is a maneuverable truck with a gross weight of up to 3.5 tons, ideal for urban environments and constrained areas. It features a modular electric platform with a range of over 300 km and a 5 kW electric heater, confirming its «zero emission» status. In 2024, ARGO-Electro successfully passed tests in Moscow and at facilities of the Rosatom Group. Plans are underway to launch the first electric last-mile delivery route in partnership with Wildberries.

This system provides over 200 eco-spheres with clean energy from renewable sources. Each eco-sphere is equipped with a VOLTS energy storage system with a capacity of 6 kW, a wind generator (1 kW), and solar panels (1.5 kW), ensuring a daily generation of up to 18 kWh. This solution significantly reduces operational costs compared to fuel generators, minimizing emissions and noise pollution while enhancing economic efficiency through energy storage and redistribution.

To ensure energy-efficient power supply for the vineyard farm and the residential house in Sevastopol, two VOLTS solar stations were installed. The vineyard utilizes 42 solar panels with a total capacity of 15 kW and an energy storage system with a capacity of 24 kWh. For the residential house, 12 panels with a capacity of 3 kW and a storage system of 10 kWh were installed. The daily energy generation for the farm is 24 kWh, while the house generates between 12 and 14 kWh. This installation promotes sustainable energy use and self-sufficiency in both the agricultural and residential sectors.

The industrial energy storage system (ESS) with a capacity of 250 kW and 355 kWh is designed to smooth out peak loads and reduce electricity costs. Based on lithium iron phosphate (LiFePO4) batteries, the system enhances the stability of the electricity grid and enables the integration of renewable energy sources. The automated control system forecasts peak consumption hours and optimizes energy utilization. This project significantly contributes to the overall efficiency of urban energy infrastructure and improves the reliability of power supply.

The VOLTS solar station located at the «Green School» educational facility in Gorky Park features an energy storage system with a capacity of 6 kWh and solar panels with a total capacity of 1.5 kW, providing a daily generation of 2.5 kWh. The project employs an intelligent charge management system to optimize the operation of the energy storage unit, ensuring a seamless and reliable power supply for the facility. This installation not only enhances energy efficiency but also promotes the use of renewable energy sources within an urban educational environment.

The geothermal system is based on three ECO27CE heat pumps with a total power of 80.7 kW, complemented by a ground heat exchanger consisting of 19 probes installed at a depth of 66 m. This system provides heating, cooling, hot water supply, and ventilation for the event hall. Additionally, the project incorporates a passive cooling scheme that helps reduce energy consumption. This innovative approach not only enhances the building's energy efficiency but also promotes sustainable practices in the local community.

To replace diesel generators at the facilities of PJSC «Polus Verninskoye,» a hydrogen backup power complex has been implemented, featuring fuel cells, a hydrogen storage system (metal hydride cylinders), and an electrolyzer with a capacity of 0.5 m³/h. The system provides up to 9 hours of backup power supply, reducing carbon emissions by 1.5 tons per year. The power installation is housed in a container on a trailer and is equipped with a 10 kWh buffer Li-ion battery and a 6 kW inverter.

The largest solar power station in the region, with a capacity of 193.6 kW, was installed in October 2023 to reduce electricity consumption from the external grid and minimize the carbon footprint of the products. The complex includes 352 solar modules (each with a capacity of 0.55 kW) mounted on screw piles and two inverters rated at 100 kW each. The power is supplied to the existing 10/0.4 kV substation busbars in automatic mode. The panels are installed at an angle of 45° to enhance performance and prevent icing.

The largest rooftop solar power station in the Tyumen region is situated on the membrane roof of the «Voyage Shopping Gallery.» To protect the roofing material, rubber pads have been installed under the structures. The complex covers an area of 4,500 m² and includes 640 Aurinko 580 solar modules (totaling 370 kW) and three grid-connected inverters. The modules are arranged in arrays of 16 pieces on 40 metal structures with counterweights.

At a food production facility, a grid-connected solar power station (300 kW), an energy storage system with a bidirectional inverter, and an automated control system based on SunConPower have been installed to smooth load fluctuations in the power supply system operating in island mode. The integration of renewable energy sources and the storage system with the control system enables maintenance of power balance, prevents sharp load fluctuations on the gas-piston units (4.7 MW), and ensures stable operation of the equipment.

An energy storage system with a capacity of 630 kW has been developed for operation in extreme temperatures (down to -60°C) in the village of Honuu, Yakutia. It includes lithium-ion batteries with a total capacity of 440 kWh, a bidirectional power converter rated at up to 693 kW, and a 1,000 kVA transformer. A unique feature of the project is the intelligent control system (IPMon software) with integrated machine learning capabilities. To enhance energy efficiency, innovative climate solutions have been implemented, including insulated flooring and heat recovery systems.

Отечественный аналог китайского двигателя «Brother Hobby». Электродвигатель используется в строительстве, сельском хозяйстве и военном деле. На данный момент успешно проведены стендовые и летные испытания, а также организовано мелкосерийное производство. Закуплено оборудование для массового производства, запуск которого планируется в ближайшее время с объемом 2000 единиц в месяц. В 2025 году предполагается выход на производственную мощность 5000 штук в месяц.

The company has developed and established serial production of fully localized automated gas turbine power plants under the trade name MSA UNITURBO of the MIG series, both open and closed types, without using imported components. In the gas turbine units (GTU), the primary drive consists of power modules GTEA800 T0.4 based on the modules of universal power plants MSU-800, equipped with gas turbine engines manufactured by PJSC «KADVI.» All other components, assemblies, and systems of the GTU and gas turbine electric stations (GTES) are designed, manufactured, and packaged into a single unit by the team at LLC «MSA Turbogeneration».

The gas turbine engine (GTE AA-2000) is a proprietary development of LLC «INGK.» It is a radial gas turbine engine with a capacity of 2 MW, designed in a simple cycle configuration with a low-emission combustion chamber. The engine features significantly smaller dimensions and weight compared to gas turbines of similar capacity. It is intended for the production and provision of electricity to remote industrial consumers, as well as for the combined generation of electrical energy, hot water, and steam when complemented with a waste heat boiler.

The stationary gas turbine GT-009M(ME) is a domestic solution with 100% localization of production within the Russian Federation. All components can be sourced from local machinery manufacturers. The nominal power output of the GT-009M(ME) is 9 MW. It features a single-shaft design operating on a regenerative cycle, utilizing waste gas heat for preheating the cycle air after the compressor before it is fed into the combustion chamber.

At the initiative of JSC «Transmashholding,» two pilot gas piston units EGP-9-00 were produced based on the engine-generator 1-9GMG manufactured by JSC «Kolomensky Zavod.» Within the framework of this project, the competing company developed and manufactured the gas piston power plant with a 6.3 kV distribution device, EGP-9-00, based on this engine. This project represents the first solution in Russia for the creation of a heat and power plant using the engine-generator 1-9GMG from JSC «Kolomensky Zavod,» which has no prior operational experience.

As part of its R&D efforts, the competing company has developed an ignition system controller with capacitive energy storage. This product ensures high reliability, environmental sustainability, and efficiency in the operation of industrial gas engines of various power ratings and configurations, including those using lean gas mixtures or gas with varying composition as fuel.

The multipurpose power unit APN-18 (oil and gas power supply unit) is designed to organize autonomous energy supply for industrial and residential facilities. Currently, there are no enterprises in Russia that mass-produce gas turbine power units with a capacity of up to 100 kW, as major suppliers have exited the market and halted the supply of generating equipment. The development by JSC SKB «Turbina» represents a breakthrough in the domestic market for micro gas turbine installations.

The TM-600 engine, with a rated power of 730 kW, is composed entirely of components and materials produced in Russia. Currently, there are no manufacturers of industrial diesel engines of similar power in Russia. Based on the TM-600 engine, «Dizelzipservis» produces diesel power plants ABKExATM-500/630. These products are built using domestic materials and components and operate on Russian software, ensuring full independence from existing restrictions on the supply of imported spare parts.

The gas turbine power plant AG100 ST400 is designed to generate three-phase alternating current electricity with a voltage of 400 V and a frequency of 50 Hz. It serves as an autonomous power supply source. The components of this power plant are 100% locally sourced, with 65% of its content produced at PAO «KADVI.» The development of PAO «KADVI» - GTES AG100 ST400 - contributes to strengthening Russia's energy sovereignty and reducing dependence on imported equipment.

The block complete power supply device based on the gas turbine power unit APN-18 is a ready-made product derived from the development by JSC SKB «Turbina.» This device is designed for the electric supply of linear consumers of main gas pipelines and aims to replace the equipment currently mass-used, which is primarily of American production, especially within Gazprom structures. Currently, the first BKES-APN unit is undergoing controlled operation at the site of «Gazprom Transgaz Ukhta» in the Republic of Komi.

The Delta dual-fuel system is an in-house development by the company «Khatraco.» This system is designed for diesel generator installations with power ratings ranging from 50 to 3000 kW. Delta enables savings of up to 70% in diesel fuel when replacing it with natural gas, resulting in a reduction of harmful emissions by up to 30%. The savings on diesel fuel lead to lower costs of generated electricity and extend the maintenance interval due to the use of cleaner fuel—natural gas.

Experts from LLC «Nauka-Energotek» have completed the necessary volume of research and development work, resulting in the creation of a universal generating module (UGM) based on a free-piston Stirling engine with a nominal electrical power output of 1 kW. This module serves as the foundation for a range of high-tech cogeneration autonomous power supply sources with nominal electrical power output ranging from 1 to 12 kW. The design solutions developed by the specialists at «Nauka-Energotek» are protected by patents in the Russian Federation.

The BlaBlaWatt project is an autonomous mini grid with energy mutual accounting. This project unites users of autonomous systems into a mini-network and considers mutual generation and consumption. Distinctive features of the project include generation circuits connected via direct current; mutual settlements between microgrid participants are conducted using cryptocurrency backed by kilowatt-hours; and the electricity price is dynamic.

The device allows for the transformation of a chemical energy storage system into a hybrid one, enhancing its capacity to handle starting currents. Measurements conducted have shown that the battery's lifespan can increase by more than 30 percent as a result of this enhancement.

The company's proprietary development provides complete removal of all aggressive gases and currently has no analogs in the world. This device is relevant to small distributed energy, as it allows for the elimination of pipeline corrosion from small generation sources to consumers without the expenses associated with chemical reagents.

The fiberglass material enhances the fire resistance of the transformer substation (KPT) and is resistant to corrosion, ensuring that it does not emit harmful gases. The KPT weighs four times less than a comparable concrete substation, resulting in lower logistics costs and reduced requirements for loading and unloading equipment.

GT Energo and the administration of the city of Velsk, Arkhangelsk region, signed a concession agreement, under which, in 2023, two central heating points with capacities of 7.5 MW and 5.2 MW were constructed; 240 facilities were connected to the gas turbine heat and power plant; 4.5 km of heating networks were built; a backup modular boiler house with a capacity of 7.5 MW was established; and technical connections for the first phase of multi-apartment buildings in the «Southern» district were provided as part of the federal program for resettling residents from emergency and dilapidated housing. In 2024, a new gas boiler house with a capacity of 2.6 MW was constructed. Total investments in the heating network business in Velsk exceeded 342 million rubles.

In 2024, the ENELT Group commissioned seven autonomous hybrid energy complexes (AGEC) in the Sakha Republic (Yakutia). The aim of the investment activities was to create a hybrid power supply system for isolated villages by installing solar power stations and energy storage systems, which included the modernization of diesel power plants and reducing fuel procurement costs. The total installed capacity of the AGEC across the seven facilities amounted to: Diesel Power Stations (DPS) of 5,390 kW, Solar Power Stations (SPS) of 1,353 kW, Energy Storage Systems (ESS) of 1,300 kW, with a total capacity of ESS of 21,427.4 kWh. The investment project allowed for the creation of new jobs, addressed the issue of replacing outdated generation in isolated areas, and improved the quality of electricity supply for the population.

The energy technology complex «RES» at the Institute of Hydroenergy and Renewable Energy Sources of MPEI serves as a unique platform for researching and testing hybrid energy complexes that integrate solar, wind, and diesel systems with energy storage solutions. Its primary goal is to optimize distributed energy supply in remote areas where centralized networks are inefficient. The automatic control system integrates various energy sources, forecasts their generation, and effectively manages the processes of energy storage and distribution, thereby reducing operational costs and enhancing supply reliability.

This interdisciplinary project focuses on the development of a prototype for desalinating groundwater and seawater, addressing critical issues such as energy production, emission reduction, and the provision of clean water, which are particularly relevant for resource-scarce regions. A new design of a photovoltaic-thermal module has been developed to enhance the efficiency of the system. As part of the project, a prototype of an autonomous multipurpose water purification complex with a capacity of 1 kW and a production rate of 1 liter per hour has been created.

The project aims to develop a prototype of a hardware-software complex for controlling the aerodynamic characteristics of wind turbine blades (WTBs) and unmanned aerial vehicle (UAV) wings using artificial intelligence (AI) and a self-learning neural network. The primary goal is to improve the efficiency of WTBs and UAVs by dynamically altering the shape of the blade or wing based on operational conditions, enabling the systems to adapt to extreme environments, such as those found in the Arctic. The project proposes an innovative approach based on micro-actuators for real-time shape modification and employs an intelligent control system to optimize aerodynamic characteristics and enhance efficiency.

The project is dedicated to the development and application of the Maisotsenko energy cycle (M-cycle), a new concept in thermodynamics that ensures the most efficient conversion of heat into work or electricity using renewable energy from the air. This cycle enhances the efficiency of energy installations while reducing CO2 and NOx emissions and minimizing the size and cost of engines. The M-cycle is applicable in various fields, including gas turbines, air conditioning systems, solar and wind installations, as well as in desalination and water purification plants, opening up new opportunities for energy savings and environmental improvement.

The main components of the environmentally safe energy-industrial system based on the resources of the World Ocean are the Wave Power Plant – a facility for converting marine wave energy into electricity, and an installation for the electrolysis of seawater producing hydrogen and oxygen. The system links natural processes with production, ensuring an effective combination of thermodynamic, ecological, and economic balance. The project addresses energy supply and ecological issues, utilizing hydrogen as a clean fuel, with its combustion restoring water within the natural water cycle.

The project aims to develop low-carbon energy generation technology with greenhouse gas capture and the production of high-purity carbon dioxide for the food and other industrial sectors. The main idea is to create a domestic complex of technologies and equipment for decarbonizing emissions and extracting CO2 from flue gases, which optimizes technological processes and improves purification efficiency. As part of the project, the first energy center in Russia with zero CO2 emissions was brought into operation, utilizing gas piston units and CO2 capture systems, with a capacity of 22.8 MW of electrical energy. Since the launch of the energy center, 65,000 tons of CO2 and 283,300 MWh of low-carbon electricity have been produced.

The project involves the development of a domestic gas-piston power plant using the «GDG 1000» electricity generator. During the implementation of the project, innovative solutions were introduced, such as remote access and monitoring of gas piston unit (GPU) operational parameters, the use of vertical silencers, and 3D design engineering, which reduces defects and simplifies production processes. The project is characterized by a high level of localization, including the use of domestic equipment and unique engineering solutions to ensure the safety and reliability of the power plant's operation.

Intelligent Control Systems for Energy Complexes and Electric Energy Storage Systems in Various Operating Modes and Power Supply Systems

The Magnetic Levitation Control System (MLCS), developed using Russian materials and software, significantly enhances the operational reliability of gas turbines by increasing their efficiency and safety due to the absence of mechanical wear on bearings. The system has been successfully tested at the Gas Turbine Combined Heat and Power Plant in Yekaterinburg. Future plans include scaling the solution to replace equipment from foreign suppliers, ensuring independence from imports and reducing operational costs. The development of the MLCS opens new opportunities for creating advanced monoblocks and improving service maintenance for Russian enterprises.

The ROAD WIND PROJECT features a system of vertical helical wind turbines with a power output ranging from 10 to 15 kW, installed along highways. These generators harness energy generated by airflows from vehicles as well as natural wind currents. This technology is particularly effective for fueling stations, providing them with autonomous energy supply, which includes powering pumps, lighting systems, and ultra-fast charging stations for electric vehicles. The solution enhances the sustainable energy infrastructure and reduces reliance on traditional energy sources.

This innovative compact hydroelectric station (HES) harnesses energy from flowing water bodies by utilizing unique lattice-type propellers, significantly enhancing efficiency compared to existing analogs. The submersible generator includes a splitter, two propellers, and a generator housed in a triangular prism casing, where the working zones of the blades partially overlap to maximize energy capture from the water flow. This solution is ideally suited for mountain rivers, providing continuous and year-round power supply. The technology has high potential for application in remote areas and supports the development of environmentally friendly energy sources.

This development of a drive for electric generators boasts twice the efficiency compared to existing analogs by utilizing only compressed gas pressure to create torque. The drive is designed for electricity generation at gas fields, enabling the transfer of energy to gas pumping stations, thereby replacing internal combustion engines (ICEs) and gas turbine units (GTUs) with electric motors. This innovation could save approximately 45 billion cubic meters of gas annually and significantly reduce carbon dioxide emissions. The uniqueness of this development lies in its unconventional method of generating torque, which ensures high efficiency without the need for pre-acceleration, idle running, or other mechanical processes.

Для питания автономных домов, а также различных объектов берегового оборудования и связи в удаленных, изолированных районах морского или океанского побережья целесообразно использовать волновую энергию в полосе прибоя. Особенно это касается полосы прибоя материковой части и островов Дальнего Востока. Автор изобретения предлагает достаточно простой, локальный волновой электрогенератор, в основе которого лежат современные композитные технологии и специально изготовленные низкооборотные генераторы. Генераторы запускаются через силовой рычаг только во время подъёма-прохождения волны, при спаде волны продолжают работу по инерции. Устройство постоянно ориентировано по направлению движения волн специальным килем и имеет кольцевой токосъёмник. Движущихся частей под водой нет.

Современные генераторы электротока на редкоземельных элементах имеют ряд преимуществ: высокий КПД, низкие обороты, плоскую форму и др. Оптимальным же телом вращения является дискообразное тело с вертикальной осью по центру. Целью предлагаемого изобретения является создание новой, вертикально-осевой ветротурбины, ротор которой одновременно и является оптимальным телом вращения. Таким образом, ротор новой ветротурбины представляет из себя современный электрогенератор в качестве базы для лопастей и, в целом, имеет плоскую, дискообразную форму.