Tags Posts tagged with "electrical grid"

electrical grid

Nissan and EDF Group have signed a cooperation agreement to accelerate the delivery of e-mobility together – particularly through the smart charging of electric vehicles. This agreement applies to the United Kingdom, France, Belgium and Italy. The cooperation agreement focuses mainly on developing smart charging solutions (vehicle to grid, or V2G) by bringing together technologies developed and mastered by both companies. Smart charging refers to technologies that optimise the charging or discharging of an electric vehicle in an efficient and cost-effective manner.

As part of the cooperation agreement, Nissan is responsible for the sale of V2G compatible electric vehicles, and EDF Group in charge of V2G charging solutions and related services.

Fundamental to Nissan’s Intelligent Mobility vision is the integration of electric vehicles into society, with V2G technology offering significant benefits to electricity grids and providing new financial opportunities to businesses. As increasing numbers of drivers and businesses make the switch to 100% electric vehicles, Nissan achieved record sales for both the Nissan LEAF and e-NV200 van in Europe last year.

EDF Group is committed to promote clean mobility for everyone, in particular by developping “smart charging” solutions with tangible benefits to customers. These fully integrated solutions include the management of the battery’s charge and discharge as well as flexibility services to the grid available through storage. They are carried by Izivia, a wholly-owned subsidiary of the EDF Group specialising in charging infrastructure, and Dreev, the newly launched EDF-NUVVE joint venture, specialising in V2G commercial solutions.

Today’s agreement follows a previous partnership in the UK between EDF Energy and Nissan. Signed last year, the two organisations agreed to collaborate around the development of shared offerings in the areas of electric mobility, smart charging, second-life battery use, energy storage and renewable energy sources.

What is smart charging?

Smart charging solutions include technologies to control when vehicles charge and how quickly they power up, as well as allow the two-way flow of electricity between vehicle and charger. Thanks to V2G technologies, the energy accumulated in the batteries of electric vehicles can also be used for businesses own energy needs or the grid when required – a benefit that will become increasingly important as greater numbers of electric vehicles arrive on our roads and to help balance intermittent renewable generation.

The energy that is stored in a electric vehicle like the Nissan Leaf and e-NV200 van can be sold back to the grid by the customer, generating additional revenue to offset vehicle ownership costs. The financial, environmental and societal benefits of V2G have made it a highly anticipated innovation in the market, but one which has not fully progressed to this point. Today’s new collaboration between EDF Group and Nissan marks a huge step towards realising this electric future, creating a practical solution that benefits businesses and wider society alike.

Source: Nissan

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Offshore wind East Anglia One

Iberdrola has hooked up the East Anglia One offshore wind farm to the British electricity grid. It is building the facilities in the North Sea, around 50 km from the coast of the county of Suffolk, in the United Kingdom, and it is scheduled to go into operation next year.

The first of 102 wind turbines, the so-called WTG E19, has already supplied clean power to the land substation in Burstall. Its subsidiary, ScottishPower Renewables, which installed 25 turbines on the site this summer, will gradually connect them to the grid.

With an investment of approximately 2.5 MM£ and covering an area of 300 km2, East Anglia One is one of the largest scale projects being developed by Iberdrola and the biggest renewable initiative ever developed by a Spanish company.

Once commissioned in 2020, it will be the world’s biggest wind farm, with an installed capacity of 714 MW that will supply 630,000 British homes with clean energy.

The construction of East Anglia One is driving the offshore power industry in Europe, providing jobs for more than 1,300 people in several countries – Spain, the United Kingdom, the Netherlands, the United Arab Emirates – and is crucial to several sectors, such as the naval industry. The project has been a great driving force in Spain, since Iberdrola has used local companies like Navantia, Windar and Siemens-Gamesa for the development of many of the essential components of the wind farm.

Technical specifications ofeast anglia one

  • 102 Siemens Gamesa wind turbines make up the wind farm, each with a capacity of 7 MW. Once installed, they will have a total height of 167 m.
  • A marine substation (Andalusia II), manufactured by Navantia in Puerto Real (Cádiz), will be responsible for receiving the electricity produced by the wind turbines and transforming the voltage so it can be sent to the coast through two undersea cables, each around 85 km long.
  • These cables are joined to a further six underground cables measuring around 37 km and running from Bawdsey to the new land-based transformer in Burstall, which connects the offshore wind farm to the national grid.
  • Of the 102 jacket-type foundations, Navantia has manufactured 42 in Fene (Spain) and Windar has built the pilot cables in Avilés (Asturias). The other 60 foundations were manufactured by Lamprell in the United Arab Emirates and by Harland & Wolff in Belfast.

 

Iberdrola, steadfast commitment to offshore wind power

Over the next few years, Iberdrola will redouble its investment in offshore wind production, developing a project portfolio with over 10,000 MW. This growth focuses on three main areas: the North Sea, the Baltic Sea and the United States.

Clean power generated by offshore wind farms are the cornerstone of the company’s strategy, which expects to allocate 39% of the 34 MM€ earmarked for the 2018-2022 period to this type of generation: 13.26 MM€.

The group is currently operating two offshore wind farms: West of Duddon Sands, which went into service in the North Sea in 2014, and Wikinger, in the German waters of the Baltic Sea, which has been operational since December 2017.

In the United States, Iberdrola is in the process of building the biggest offshore wind farm in that country: Vineyard Wind. Just off the coast of Massachusetts, it will produce 800 MW of power to cover the energy needs of a million homes.

In Germany, in April 2018, the company was awarded contracts to build two new plants in the Baltic Sea, with a total of 486 MW of power: Baltic Eagle and Wikinger South.

In addition to these new plants, the Sant Brieuc Wind Farm, which is located in French waters, is scheduled to be commissioned in 2022. It will have 496 MW of installed power and will be located just off the coast of French Brittany, 20 km offshore.

Once these projects are operating in late 2022, the company will have installed 2,000 MW of offshore wind power, after which it will add a further 1,000.

Iberdrola is seizing this excellent opportunity for growth, with ambitious objectives for new wind generation facilities in the United Kingdom and the United States for the next few years: 30,000 MW for 2030 in the former and 25,000 MW in the latter, each with different timelines.

The technology group Wärtsilä has commissioned its 6 MW/6 MWh energy management and storage system project for its customer ContourGlobal Bonaire on the Caribbean island of Bonaire. With Phase One complete, the island no longer has to curtail wind resources. It has nearly doubled renewable energy penetration, and prepared the system for additional capacity to accommodate peak demand during tourist season. ContourGlobal’s entire island grid is managed and operated by Greensmith GEMS advanced software platform.

The utility’s phased approach allows time for system operators to add new hybrid solutions and spread out costs, and leaves room for new technologies to come online. For Bonaire, Phase One involves GEMS managing an optimising dispatch and operation of existing generation assets. It also provides spinning reserve requirement with energy storage to reduce fuel consumption and emissions. Furthermore, Phase One involves unlocking curtailed wind energy and improved system reliability by providing frequency and voltage control. To optimise the system GEMS now factors in real-time asset performance, as well as load and renewable energy forecasts. With Phase One complete, GEMS can balance Bonaire’s resources and seamlessly optimise thermal, wind and energy storage assets.

During the commissioning tests, several load rejections were tested, including loss of wind, loss of engines and loss of demand, and in every circumstance GEMS instantaneously tracked and maintained the quality of the generation avoiding the load shedding of the grid. This is just one example of how this project will improve operations through automation while helping the island avoid blackouts, achieve greater efficiencies and use more wind power.

Commissioning of the project puts Bonaire on the path to achieving its 100% renewable target. This is the beginning of a longer-term plan to fully modernise the island’s system and add additional capacity and renewable energy generation to the grid. ContourGlobal Bonaire commissioned the project after years of seeking solutions to integrate more renewable power into the existing island grid.

The next phases for the Bonaire project will replace outdated thermal technology with five new engines and add more wind and solar to the generation mix. As the island grid increases in size, GEMS will enable further renewable penetration and lower the cost of energy. GEMS machine learning and AI capability will incorporate weather, electricity demand and other variables and data into its forecasting models. This data will inform the automated decisions managing ContourGlobal’s entire fleet.

Source: Wärtsilä

Rolls-Royce and ABB have announced a global partnership on microgrid technology and advanced automation. Together the two companies will offer an innovative, energy-efficient microgrid solution for utilities, commercial and industrial entities. A microgrid is a small scale electric grid that combines power from distributed energy generation sources such as combined heat and power plants, diesel- and gas-powered gensets and renewable sources with batteries. The microgrid provides the overall control to coordinate these resources to meet the requirements of industrial, residential or consumer loads. Microgrids can either function off-grid, or connected to the main power grid. The ability of microgrids to seamlessly separate themselves from the main grid, in the event of a potential grid fault or emergency, is an in-creasingly important feature.

Reliable power supply – even during harsh weather conditions and times of peak consumption – is critical for economic growth. Integrating renewable energy is a sustainable solution to support uninterrupted power as well as encourage clean energy use. Microgrid solutions benefit utilities, industries and commercial sites that are looking for reliable power supply as well as cost and carbon emission reduction.

Microgrids enable resilient power supply even with high penetration of intermittent renewable energy sources like wind and solar. Digital automation and control systems intelligently coordinate distributed energy resources and loads for the microgrid to function efficiently.

Rolls-Royce offers the MTU Onsite Energy brand power system solutions: from mission critical, standby and continuous power to combined generation of heat and power, and microgrids. “Due to the transformation towards decarbonization, customers need to pursue sustainable power options that also deliver utmost profitability. For this, we rely primarily on microgrids, which are autonomous energy supply systems that are efficient, reliable, and environmentally friendly,” said Andreas Schell, CEO, Rolls-Royce Power Systems.“Combining our integrated MTU diesel and gas genset system technology and our control solutions, with ABB’s modular microgrid solution, control capability and remote service, will offer customers the combined strengths of the two world leaders in technology.

ABB Ability™ e-mesh™ can ensure a stable power grid, even with a high share of renewable energy from various sources, working smoothly together with already installed gas or diesel engines,” said Massimo Danieli, head of ABB’s grid automation business line within the company’s Power Grids business. “ABB has a vast number of microgrid installations globally and through our partnership with Rolls-Royce Power Systems, we will further support the growing interest for microgrid solutions globally.

The ABB Ability™ e-mesh™ solution will provide power generation asset owners a vertically integrated, unified view of their distributed energy resources and renewable power generation that is quick to deploy and that reduce operational costs. Cloud operations, site and fleet optimization, weather and load forecast and machine learning algorithms offer infinite insights for decision-making, such as knowing where to increase investments on maintenance or how to increase revenue streams to operate assets more profitable.

Source: ABB y Rolls-Royce

To date, Ingeteam has supplied 140 MW to Chile for solar projects coming under the Distributed Generation by Small Power Producers (PMGD) program, which supports the execution of generation projects with rated powers of up to 9 MW.

Distributed generation is an ongoing trend in Chile and in many other countries, accounting for one quarter of global investment in renewables in 2015. To promote the construction of projects of this type, the PMGD program gives PV plant owners the guarantee that they will be able to sell all their output to the electricity grid. Moreover, the National Energy Commission (CNE) allows these producers to choose between the sale of energy at either a marginal cost or stabilized price. In this latter case, producers are guaranteed stable prices that are higher than market prices, given the fact that these prices are calculated every six months by the CNE and are not subject to a time of day variation.

In the past two years, Ingeteam has supplied its PV inverters for ten solar projects of this type and is now supplying fourteen of its Inverter Stations with 1500V technology for seven solar PV plants that are being built by Grenergy, a company that also decided to install Ingeteam’s PV inverters at the La Esperanza, Marchigüe, Mostazal and Luders photovoltaic plants. Thanks to the supply of PV inverters for these last seven projects, Ingeteam has reached a total power of 140 MW at plants coming under the PMGD program in Chile. Ingeteam also has a portfolio of upcoming projects for this country, in which it holds a privileged position in the PV inverter manufacturer ranking.

In order to ensure a correct operation of the electric system, a project under the PMGD program must implement functionalities as minimum electric protections at the coupling switch. These functionalities are performed by Ingeteam’s PL70SV, already in operation in more than 20 installations of this kind. Ingeteam has supplied protection and control systems to the Chilean market to connect with the electric grid 12 renewable energy power plants –wind and solar PV-, totaling more than 1,100MW.

Furthermore, since Ingeteam first started operating in Chile, five years’ ago, the company has also gone on to secure its position as a leader in the operation and maintenance of renewable energy generating plants. In Latin America, the company provides maintenance services to a total of 2.5 GW, of which 664 MW correspond to Chile, accounting for 33% of the country’s total installed renewable power. In the solar sector in Chile, Ingeteam maintains a total of 330 MW. This record figure was primarily achieved thanks to the presence of Ingeteam in the Atacama desert. In fact, Ingeteam is going to supply the integral O&M service to four of these solar farms: Cachiyuyo Solar, Malaquita Solar, Valle Solar Este and Valle Solar Oeste. For the rest, the company will provide after-sales service.

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The first offshore wind farm one hundred per cent designed and operated by a Spanish company

Iberdrola has officially cut the ribbon on Wikinger offshore wind farm, one of the company’s most iconic power plants in the world, having invested over €1.4 billion. Wikinger is fully operational and its 350 MW are connected to the German grid, supplying efficient renewable energy to 350,000 homes (representing some 20% of the energy demand of the state of Mecklenburg-Vorpommern). This flow of clean energy will have a positive environmental impact since it displaces the emission of nearly 600,000 tons of CO2 per year.

The Wikinger project marks Iberdrola’s entry into the German electricity market, where it has just been awarded the construction of two other offshore wind farms: Baltic Eagle (476 MW) and Wikinger Süd (10 MW). Together with Wikinger, these three wind farms, located off the island of Rügen, will give rise
to the largest offshore wind complex in the Baltic Sea, with a total installed capacity of 836 MW and a combined investment of €2.5 billion.

Wikinger is the first offshore wind farm to be designed and operated one hundred per cent by a Spanish company. It has consolidated Iberdrola as Europe’s leading company in renewable energy, capable of developing projects in markets as competitive as Germany and meeting the demanding planning conditions set by German authorities. In addition, it has served to boost the entire supply chain, benefiting companies across Europe, including Navantia and Windar.

This project has come to fruition thanks to the multidisciplinary and multinational composition of the team set up by Iberdrola and its network of first-rate international suppliers and contractors. Over 2,000 employees from 20 different countries participated in this milestone project. Iberdrola has had to overcome the technological challenges inherent to this type of work and the difficulties arising from the extreme weather conditions in the Baltic Sea.

Wikinger, a mark for Iberdrola

Located off the north-east coast of the German island of Rügen, Wikinger brings together the main themes of Iberdrola’s strategy: strong investment in the development of renewable energies, commitment to reducing emissions, technological innovation, international growth, opening of new markets and business lines to its suppliers, and an important boost for the European naval industry.

To build the project, 280 piles were installed. Measuring 40 metres in length by 2.5 m in diameter, and a unit weight of 150 t, they were all built by Spanish company Windar. A total of 70 foundations were laid on them, each weighing 620 t, manufactured by Bladt Industries in Lindo (Denmark) and Navantia, at its shipyard in Fene (Spain).

The 5-MW Siemens Gamesa AD 5-135 wind turbines were manufactured in the company’s plants in Bremerhaven and Stade (Germany). These are the wind turbines with the highest power rating and largest dimensions that Iberdrola has installed thus far. With a total height of 165 m, they are made up of a 75-m high tower, a 222-t nacelle and a 135-m diameter rotor, with each blade measuring 67 m long.

Finally, one of Wikinger’s key pieces of infrastructure is the Andalucía offshore substation, which will be used jointly by Iberdrola and 50Hertz, an electricity system operator in Germany. Weighing around 8,500 tonnes, the energy heart of the wind farm was also built by Navantia in Puerto Real in southern Spain.

Commitment to offshore wind power

Offshore wind energy is one of the keys to Iberdrola’s growth and the company has undertaken notable projects in this sector in the United Kingdom, Germany and France. These large investments will help advance the transition to a decarbonised energy model and combat climate change. These are the main projects underway:

West of Duddon Sands (WoDS): Located in the Irish Sea, WoDS was the first offshore wind farm the Iberdrola Group was involved in. It was developed by the company in consortium with Orsted and came into operation in 2014. It has 389 MW capacity and the investment was over £1.6 billion.

East Anglia One (EAO): Mega-project currently under construction in British waters in the North Sea, it will become one of the world’s largest offshore wind farms when it starts operating in 2020. It will involve an estimated investment of £2.5 billion and have a capacity of 714 MW.

Saint-Brieuc: This 496-MW facility will be located 20 km off the coast of Brittany in northern France, about 100 kilometres from the city of Rennes. It will have 62 Siemens-Gamesa turbines, with 8 MW unit capacity.

Vineyard Wind: Iberdrola, through Vineyard Wind, recently received authorisation from the Massachusetts Electric Distribution Companies (EDC) to construct a wind farm off the north-east coast of the United States. The project, which represents the company’s first large-scale offshore wind farm venture in that country will have 800 MW capacity.

Source: Iberdrola

Acciona Energía is the first company to apply blockchain technology to certify the 100 per cent renewable origin of the energy fed into the grid from its two storage facilities in Navarre (Spain).
Blockchain technology was successfully integrated into its PV plant in Tudela and its wind farm in Barásoain – the latter becoming the first hybrid storage facility for wind power with batteries in 2017.

Thanks to this technology, Acciona Energía’s clients and other stakeholders are guaranteed that the energy supplied from battery storage facilities comes exclusively from renewable sources that are free of greenhouse gas emissions.

Due to its decentralized and operational characteristics, blockchain technology not only acts as a ‘virtual notary’, certifying that the energy produced is of renewable origin; it also does so in real time and in a transparent way. All these attributes are considered important by renewable energy corporate clients and institutions that are committed to the use of clean energy and need proof of origin to meet their sustainability goals.

Certifying the renewable origin of energy is increasingly widespread, associated with the growth of the corporate procurement of green energy, and blockchain technology can greatly facilitate this service to clients in any part of the world. We are very pleased to have taken this first step in a service that will surely grow in importance over the next few years”, says Acciona Energía Director of Innovation Belén Linares.

With wind and photovoltaic energy

The STORe-CHAIN® system developed by Acciona manages data recorded by power counters in wind and solar plants and matches the energy produced with renewable energy certificates. This data is stored in a blockchain platform that acts as a guarantor of the legitimacy of these green certificates and which can be accessed by a client at any time.

The initiative is part of a wider program called GREENCHAIN®, with which Acciona seeks to certify the renewable origin of all the company’s electricity production using blockchain technology.
The plant at Barásoain is equipped with a storage system consisting of two batteries, one a fast-response 1 MW/0.39 MWh and another 0.7 MW/0.7 MWh, which has greater autonomy. Both are connected to a 3-megawatt (rated capacity) Nordex AW116/3000 wind turbine. Last May the plant received the first certification in the world from DNV GL for a grid-connected electricity storage solution.

The photovoltaic facility near Tudela has a storage system with one 1 MW/650 kWh battery.
Both systems are managed by control software developed by Acciona Energía and are integrated in the company’s Renewable Energy Control Center (CECOER) on a permanent basis.

Source: Acciona Energía

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The Global call for start-ups will be awarding fifteen of the most innovative, sustainable energy start-ups a tailored package of added-value services and a €100,000 cash prize will be awarded to the best one.

To support our work with the European Battery Alliance (EBA), they hope to attract and support start-ups with innovative technology or business model concepts focused on electric storage. Of particular interest are electric storage innovations for application in transportation, for grid, distributed and mobile energy storage, or to deliver energy efficiency improvements and emissions reductions.

Successful applicants will receive a place on one of InnoEnergy’s business creation programmes – the Highway™ or Boostway™ – and a tailored package of support, training, services and funding. The Highway™ uses a hands-on approach to support early stage start-ups in the go-to-market phase, helping ready products for commercialisation. The Boostway™ programme supports scale-ups to grow their businesses.

Launched in 2017, the EBA seeks to create a competitive and sustainable battery cell manufacturing value chain in Europe. We are working with more than 120 stakeholders within the EBA to achieve this ambition and help develop a new market that could be worth €250 billion a year by 2025.

Elena Bou, innovation Director at InnoEnergy, says: “Acting as a trusted partner, we’re here to give businesses the lift off they need to reach commercialisation. Through our unique ecosystem we offer start-ups unparalleled access to everything they need to make a resounding business success of their innovative ideas.”

Successful applicants will gain access to a network of more than 385 partners and including specialist business angels, InnoEnergy’s European VC community and public funding bodies. Start-ups also gain board-level advice and mentorship and a front-row seat at European energy events, including The Business Booster – InnoEnergy’s annual networking event where companies across the energy value chain attend to meet start-ups and innovations under one roof.

Bo Normark, InnoEnergy’s thematic leader for energy storage adds: “Europe needs innovative electric storage solutions to support the decarbonisation of transport and heat through electrification. It is our mission to find businesses with unique and innovative concepts, products and solutions that have the potential to be part of the sustainable battery cell manufacturing value chain.”

The call for start-ups is open until 30 October 2018. The application process consists of five phases; an initial application, an internal evaluation, a five-minute video pitch and an external expert assessment. Following the external assessment 30 applicants will pitch their idea to two parallel juries, and 15 winners will be selected. At the celebration event in February one winner will be awarded a prize of €100,000.

Applicants will be evaluated against the following criteria:

Innovativeness of the business idea
Value proposition
Addressable market size
Scalability of product/service
Founding team and ownership structure
Competitive advantage
Impact potential
Ability to leverage on InnoEnergy as a partner

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With a commitment to deliver cleaner, more reliable power where and when it’s needed most, GE has launched the GE Reservoir – a comprehensive energy storage platform that delivers a suite of customized storage solutions to help customers address new challenges and seek new opportunities in a rapidly transforming power grid that is becoming more highly diversified and distributed.

The Reservoir, which already has a 20 MW, 80 MWh pre-launch commitment, expands GE’s 10-year footprint in the energy storage space and builds upon recent successes and milestones. Just last month, GE announced a new project with the Arenko Group to build one of the world’s largest energy storage systems in the UK.

GE’s Reservoir platform enables cost-effective distribution, storage, and utilization of cleaner, more reliable power where and when it is needed most. It can fit into most any setting, from centralized grid systems to the most remote villages and communities. The Reservoir also allows energy providers new degrees of flexibility for more intelligently managing and getting the most out of all their power assets.

GE’s Reservoir platform, developed with innovative technology from GE’s Global Research Center, is a flexible, compact energy storage solution for AC or DC coupled systems. The Reservoir solution combines GE’s advanced technologies and expertise in plant controls, power electronics, battery management systems and electrical balance of plant – all backed by GE’s performance guarantees.

The 1.2 MW, 4 MWh Reservoir Storage Unit, is the fundamental building block of GE’s Reservoir platform. It is a modular solution that integrates GE’s Battery Blade design (module stack design) with key technologies from across the company’s portfolio to achieve an industry-leading energy density, footprint and lifetime performance. GE’s proprietary Blade Protection Unit (BPU) actively balances the safety, life, and production of each battery Blade, extending battery life by up to 15 % and reducing fault currents by up to 5X.

The modular system has multiple installation and cabling options including pad or pier and is designed to minimize operation and maintenance (O&M) expenses over the life of the project with an all-weather design and high-efficiency cooling system. It is factory built and test to reduce project installation time and costs.

A living, learning system

GE’s Reservoir platform leverages Predix and Edge controls technologies to provide data-driven insights that help energy operators enhance their systems. These digital technologies leverage GE’s unique and unparalleled technical and industry domain knowledge across the entire energy ecosystem from generation to consumption.

Put together, GE’s Reservoir delivers the most comprehensive energy storage platform to help meet the energy industry’s rapidly changing needs. The ability to offer highly customized solutions through the platform offers customers unprecedented levels of flexibility, resilience and operational efficiency in hybrid generation, grid operation and energy management. GE’s Reservoir also enables other diverse applications that include: Managing higher levels of renewable power, grid stabilization, peak demand management and controlling energy flow. By enabling better asset utilization and overall system management, customers can realize new revenue opportunities and cost savings as well.

Source: GE

A consortium comprising EPC contractor TSK and Rolls-Royce has signed an engineering, procurement and construction (“EPC”) contract with Prime Energía Quickstart Spa, a subsidiary of Prime Energia SpA (“Prime Energía”), for the construction of five power plants across Chile consisting of 265 MTU Onsite Energy 16V 4000 gensets. Prime Energía is a subsidiary of the New York-based Glenfarne Group, LLC (“Glenfarne”), a developer, owner-operator and industrial manager of energy and infrastructure assets. Prime Energía’s five power plants will offer a total combined capacity of 475 MW, which will be connected to Chile’s electricity grid to provide backup capacity to the country’s power supply system.

These power plants are an integral part of Glenfarne’s strategy to develop power infrastructure that supports the proliferation of renewables and the stability of the grid in regions across the Americas with great potential for growth.

The order to deliver the power plants to the first three locations has been officially placed with the consortium, with the order for the two additional plants scheduled to follow shortly thereafter. The gensets will be digitally connected via gateways sending data to the MTU GoManage platform to monitor and analyse system data. The power plants will be remotely monitored and controlled in real time by Prime Energía’s state of the art Network Operations Center in Santiago.

Chile is one of the fastest growing economic powers in Latin America. Demand for energy is expected to grow at an annual rate of 4 per cent over the next 5 years, and the country expects to benefit from the vast availability of renewable power sources. The percentage of renewable energy in the Chilean power mix is growing at a constant rate: its share, in terms of installed generation capacity, has more than tripled since 2012, and in 2017, with a total plant capacity of around 4,300 MW, was approximately 18 per cent. By 2035, no less than 60 per cent of the country’s electricity is expected to be produced from renewable energy, increasing to 70 per cent by 2050. As Chile increases its reliance on weather variable renewable energy sources, there will be an increased requirement for fast-response, cost-competitive backup power sources such as the power plants in Prime Energía’s portfolio to stabilise the electricity grid.

Source: Rolls Royce

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