We would like to extend a warm welcome to EASE newest member CellCube!
CellCube intends to be a fully integrated producer of vanadium, vanadium electrolytes and vanadium redox flow batteries for the Energy Storage Market.
Thanks to CellCube for joining EASE in 2018! Discover more about EASE membership
The Energy Storage Global Conference 2018 officially closed its doors on 26 October 2018 after three intensive days of discussions on energy storage technologies, policy, and markets. The ESGC 2018 confirms the success of the previous two editions thanks to the involvement of over 300 participants from all around the world, as well as 75 speakers and 16 exhibitors.
Read now the full press release: Energy Storage: a critical link in the chain of the energy transition
The European Association for Storage of Energy (EASE) is proud to announce the winner of its third annual Student Award Ankit Takle, who had conducted an outstanding research in the field of energy storage with the thesis ‘Simulation Based Analysis of Control Strategies for Heat Pump Integration in District Heating Networks’.
EASE: Congratulations on winning the 2018 EASE Student Award! We were very impressed with your thesis on ‘Simulation Based Analysis of Control Strategies for Heat Pump Integration in District Heating Networks’! Could you summarise the main focus and findings of your thesis?
Ankit: Thank you! I am glad that your esteemed panel recognized my work. My work falls under the umbrella of fourth generation smart energy systems, which focuses on having an inter-dependent energy usage to maximise its efficiency and to facilitate the integration of renewable energy resources into the grid. In my case, a “power-to-heat” approach was utilised wherein electricity fluctuates due to intermittent generation sources such as solar and wind which can be accommodated by heat-supplying mediums like heat pumps, which run on electricity and are coupled with a thermal energy storage medium.
My work focused on thermo-economic possibilities of large-scale heat pump integration in a district heating network along with a centralised thermal storage making use of variables such as the changing hourly spot prices and customer side load shifting strategies. Utilising the thermal mass of buildings as a storage medium was also taken into consideration. The results show a promising 15% reduction in heating costs due to dynamic pricing and load shifting, which is enabled due to the storage medium.
EASE: What are the most interesting insights from your work for the storage sector specifically?
Ankit: This thesis introduces two different strategies to include the role of energy storage which can be coupled with a heat supply medium to optimise its operating performance with other variables. These are: the thermal energy storage, and the building thermal inertia.
The latter plays a crucial role in optimising the heating costs along with an effective demand side management strategy results in significant cost savings for the entire system when coupled with the volatility of the variable electricity market. This can be a valuable step towards utilising innovative storage technologies for fourth generation smart heating systems.
EASE: What are your expectations for thermal energy storage technologies in the future? Will they have a major role to play in the energy transition?
Ankit: In my opinion, the energy transition cannot be achieved without an effective storage mechanism. As the world strives to increase renewable energy contribution to the generation pool, an increased effort has to be made in parallel to develop flexible energy systems to accommodate an unpredictable generation output from solar and wind. When we talk about flexibility, a necessity to store energy automatically arises. Hence, the role of energy storage is inevitable.
EASE: How did you get interested in the storage sector?
Ankit: As I was pursuing my Master studies in Sustainable Energy Systems from the University of Applied Sciences Upper Austria, it became clear that energy storage is the backbone of a sustainable, low-carbon energy system. As I mentioned, energy storage is critical to extract maximum potential from a sustainable resource. I am grateful to my University and the Austrian Institute of Technology GmbH for providing me with an opportunity to contribute to this field.
EASE: What are your future career plans? Do you see yourself working in the storage sector?
Ankit: I see myself working towards enabling decentralised integration of renewable energy systems as well as fields related to “Power-to-heat” and Smart electricity/heating grids. The role of the storage sector in these areas is crucial and therefore, I will definitely be contributing to the storage sector.
EASE: What are your expectations of the Energy Storage Global Conference 2018? What are you most looking forward to?
Ankit: I look forward to meeting up with researchers and industry leaders in the storage sector to gain knowledge, not only on the technological basis, but also on the policy making and regulatory developments in the future of energy storage.
For more information please contact Ankit Takle at email@example.com
We would like to extend a warm welcome to EASE newest member Storengy!
Storengy, an ENGIE subsidiary, designs, builds and operates storage facilities and offers its customers innovative products based on the extensive know-how it has acquired through 60 years’ experience with different markets and regulatory environments.
Thanks to Storengy for joining EASE in 2018! Discover more about EASE membership
We would like to extend a warm welcome to EASE newest member Fluence!
Fluence is the result of two industry powerhouses and pioneers in energy storage joining together to form a new company dedicated to innovating modern electric infrastructure. In January 2018, Siemens and AES launched Fluence, uniting the scale, experience, breadth, and financial backing of the two most experienced icons in energy storage. Thanks to Fluence for joining EASE in 2018! Discover more about EASE membership: http://bit.ly/easemember
Thanks to Fluence for joining EASE in 2018! Discover more about EASE membership
This project involves the construction of Gouvães, Daivões and Alto Tâmega hydropower plants, which will be erected over the Tâmega River, in the north of Portugal.
The EIB finances this development with 650 million euros, out of a total investment of more than 1.5 billion euros. The three power plants will have a total installed capacity of 1,158 MW and will be capable of producing 1,766 GWh per year. Iberdrola has started the assembly of the first turbine for the pumped hydroelectric power plant at Gouvães. This plant will include an underground cavern with four reversible pump turbines, generating a total power of 880 MW.
The Cortes-La Muela complex located in Júcar River (Spain) has a total installed capacity of 1767 MW. It includes the largest pumped hydroelectric storage plant in Continental Europe.
La Muela I and La Muela II power plants feature 7 X 212 MW reversible turbines. Two reservoirs with up to 524 metres altitude difference allow water to be stored in the upper reservoir and used to produce electricity during peak consumption times. Pumped hydroelectric storage is the most cost-effective large scale storage method. It provides stability and flexibility to the electrical system, as it can produce large amounts of power with fast response times without any GHG emission.
Iberdrola has installed a micro grid facility in the Campus of San Agustín, composed of 3 Li-ion batteries of 170kW/250kWh, several photovoltaic plants, a Building Management System, EV charging points and wind generation.
This project is focused on the interaction between the dispatching centre and distributed energy resources. The first objective was to adapt the distribution management system. The DSO will have to be able to operate the grid, enabling all these elements connected to the grid or temporarily off-grid, and the systems must be ready for that. Coordinated operation of several storage systems to provide services to the grid has also been tested.
Iberdrola is installing its first 1,25MW/3MWh Li-ion battery for real operation on the Spanish grid, at the end of a long feeder in the region of Murcia.
The plant is located in an area prone to adverse weather events with difficult accessibility in a confluence of several 20kV lines. In case of an outage, the battery, which will be operational by the end of 2018, will maintain the power supply to the neighbouring villages, deciding automatically the line or lines to be fed by the battery and the size of the electrical island considering the current demand and local generation.
Storage solutions promise to be a true revolution in the renewable energy sector, which sees Enel Green Power (EGP) as one of its global leaders.
In some of the thirty countries where it works, the Group has already successfully installed various systems able to store energy and make it available when there is greater need, in order to balance demand and supply on electrical grids. In Italy, the first EGP-brand storage system came about in 2015, in Potenza Pietragalla, Basilicata. Integrated with the wind farm of the same name, it’s able to store 2MWh of energy and helps guarantee the stability of the electrical grid. Also in 2015, the first storage system (1 MW / 2 MWh) in a photovoltaic plant was built in Sicily, at the Catania 1 solar park, with an installed capacity of 8 MW. These two examples represent milestones for EGP in the field of storage solutions and a key step forward for the entire technological supply chain related to renewables.
The experience and know-how EGP has gained over the years has allowed them to create an innovative micro-grid with very high technological content at Cerro Pabellón, in the Chilean part of the Atacama Desert. The developed system integrates a 125-kWp photovoltaic plant with a Hybrid Energy Storage System (HyESS), based on lithium ion batteries (132 kWh) and hydrogen storage (1 MWh). In Germany, the first 2-MW/2-MWh section of the Cremzow plant, in the state of Brandenburg, is already in operation. The lithium ion battery-based plant, which will reach its full size of 22 MW / 34 MWh by the end of 2018, will store the energy produced by the nearby wind fields and provide regulation services for the German grid.
However, the history of storage is still to be written. In the future, it is expected that a decrease in battery costs and the arrival of new technologies on the market can increase the speed of their deployment and integration with renewable sources to guarantee greater flexibility, and a production profile focused on the specific needs of customers and the grid. The presence of storage systems, in fact, increases the value of a renewable plant, since it allows for a wide range of ancillary services, such as frequency and voltage adjustment and grid rebooting, which are necessary to guarantee the security of an electrical system.
The 25MW/12.5MWh BESS Tynemouth project is supported by a four-year contract with British utility National Grid to provide grid balancing services.
The UK electricity market has experienced the gradual shutdown of conventional thermal generation units during the last years while increasing amounts of intermittent renewables have been connected, reducing the inbuilt system inertia.
The resultant rise in frequency volatility has increased the requirement for faster response times by National Grid, the UK TSO. At the time of the tender in 2016, National Grid’s fastest service was the Firm Frequency Response (FFR), with response times for Primary and Secondary FFR of 10 seconds and 30 seconds respectively. The deployment of EFR, with a sub-second response time, has provided NG with greater control over frequency deviations, resulting in a cost saving for the system.
In summer 2016, National Grid’s Enhanced Frequency Response (EFR) tender brought forward investment in eight battery storage facilities in the UK. The auction process secured 201 MW of capacity for a 4 year contract at prices between 7 and 11.97GBP/MWh, at a total cost of £65.95 million over four years.
In May 2017, Enel acquired the BESS Tynemouth project from Element Power, an European based energy developer and operator. The project has one of the highest contract prices by National Grid (11,49GBP/MWh). With a nominal capacity of 25MW/12.5MWh (end of life), the project represents the largest stand-alone BESS for Enel Group. The project was built during the second half of 2017 under an EPC contract with RES (Renewable Energy System), using a lithium-ion battery provided by Samsung and put in operation in June 2018.
BESS Tynemouth will operate under a four-year Enhanced Frequency Response (EFR) contract with National Grid to provide grid balancing services and, after four years, the project will participate to the ancillary services market.
The UK is one of the most advanced markets in the world for utility-scale battery storage systems and one of the first in having set a frequency regulation tender well suited for stand-alone battery storage projects. Moreover, the country offers several revenue stream opportunities, including both regulated and market remuneration schemes. This has resulted in rapid deployment of BESS across the UK over the past three years, with different storage projects winning an EFR contract and also targeting different ancillary service market schemes.
Enel’s BESS Tynemouth project has marked an important milestone in the growth of Enel Group in the stand-alone battery energy storage systems sector and has allowed Enel to gain experience and strategic knowledge in building such projects which can be applied to other markets.
The heating and cooling sector is vitally important for the transition to a low-carbon energy system. Heating and cooling is responsible for half of all consumed final energy in Europe.
The vast majority – 85% – of the demand is currently fulfilled by fossil fuels, most notably natural gas. To further the energy transition, low carbon heat sources (e.g. geothermal, biomass, solar and waste-heat) need to be deployed. Heat storage can play a pivotal role in this development. Storage provides the flexibility to manage the variations in supply and demand of heat at different scales, and in particular can smooth out the seasonal dips and peaks in heat demand. Underground Thermal Energy Storage (UTES) technologies need to be further developed so that they can become an integral component in the future energy system infrastructure to meet variations in both the availability and demand of energy.
The main objectives of the HeatStore project are to lower the cost, reduce risks, improve the performance of high temperature (~25°C to ~90°C) underground thermal energy storage (HT-UTES) technologies, and to optimise heat network demand side management (DSM). This is primarily achieved by 6 new demonstration pilots and 8 case studies of existing systems with distinct configurations of heat sources, heat storage and heat utilisation.
This will advance the commercial viability of HT-UTES technologies and, through an optimised balance between supply, transport, storage and demand, enable geothermal energy production to reach its maximum deployment potential in the European energy transition.
HeatStore is one of nine projects under the GEOTHERMICA – ERA NET Cofund and has the objective of accelerating the uptake of geothermal energy by 1) advancing and integrating different types of underground thermal energy storage (UTES) in the energy system, 2) providing a means to maximise geothermal heat production and optimise the business case of geothermal heat production doublets, 3) addressing technical, economic, environmental, regulatory and policy aspects that are necessary to support efficient and cost-effective deployment of UTES technologies in Europe. The three-year project will stimulate a fast-track market uptake in Europe, promoting development from demonstration phase to commercial deployment within 2 to 5 years, and provide an outlook for utilisation potential towards 2030 and 2050.
The 24 contributing partners from 9 countries in HeatStore have complementary expertise and roles. The consortium is composed of a mix of scientific research institutes and private companies. The industrial participation is considered a very strong and relevant advantage which is instrumental for success. The combination of leading European research institutes together with small, medium and large industrial enterprises, will ensure that the tested technologies can be brought to market and valorised by the relevant stakeholders.
The rapid increase in electricity generation plants using non-programmable renewable sources (NPRSs) in Italy in recent years has had an increasingly tangible impact on processes for management of electricity flows (dispatching) and the safe operation of the national electricity system in general.
In order to optimise generation from renewable sources and at the same time ensure increased security management margins in the electricity system, Terna has identified energy storage as one of the possible solutions to the problem. This is why Terna has planned the installation of technologies in strategic locations across Italy and connected to the National Electricity Transmission Grid (NTG). This innovative use of storage systems has led Terna to launch an experimental programme aimed at implementing pilot projects designed to test and validate the use of electro-chemical storage at the “utility-scale” level.
The first project, launched by Terna in 2011, is focused on large-scale storage plants, connected to sections of the high-voltage (HV) grid in southern Italy, which are critical due to the high levels of penetration from NPRSs. With the primary focus on reducing congestion volumes, Terna conducted a public tender process leading to the selection of the NAS battery technology (sodium/sulphur) as the most suitable for the purpose. The total storage programme of 35 MW is composed of three plants, each connected to the NTG via a 20/150 kV Electrical Substation. The project operation enables the optimisation of the primary objectives (mitigating congestion from NPRSs) and the effective experimentation with highly innovative grid delivery services (e.g. experimental calibration of the primary regulation and secondary regulation of frequency, development of new and advanced dispatching services, etc.).
More experimental in nature and structured like a true energy storage laboratory, the second project (Storage Lab) was launched in 2012, and consists of 16 MW of multi-technology storage systems, aimed at increasing the safety margins of the HV networks on Italy’s two largest islands (Sicily and Sardinia). With 13.4 MW total capacity already installed (21.2 MWh storage capacity), the Storage Lab project is the only one of its kind in the world in terms of the variety of available technologies and the innovative nature of the control systems. The individual storage units are lithium (9.2 MW, 5 types), Sodium Nickel-Chloride (3.4 MW, 2 types) and vanadium redox flow (0.85 MW, 2 types) based. To complement the existing technological portfolio, Terna also plans to install super-capacitor systems in the near future. With the Storage Lab project, Terna is able to experiment with the main storage technologies currently available on the market and test their performance in terms of supporting essential conventional services such as primary frequency regulation, secondary frequency regulation and Defence System easement.
The outcome of the experiments conducted by Terna will help us to place an emphasis on technological development in the sector and accelerate the integration of such resources in the dispatching service markets as well as in the national electricity system in general.
ENGIE for a safe energy transition for the final user: Security as a quality business vector.
Safety is the first priority of any plant. ENGIE improved the level of safety standards by developed integration guidelines. These provide technical assistance to integrators and project managers for the safe operation of batteries. Engie Laborelec proposes different services to help project managers and operators of batteries:
Simplify the penetration of decentralised renewable energy sources, allowing everyone to participate to the energy transition.
The P2P Energy Communities project consists in developing a global energy community platform, enabling the creation and daily energy management of communities, compatible with grid issues. The (distributed) assets considered within the project are, amongst others, photovoltaics installations, residential batteries, and electric vehicles. The project is rolled out among 70 residential users (peers).
ENGIE provides through Laborelec:
ENGIE Energy Storage Park in Drogenbos Delivers Frequency Regulation Service
The Drogenbos project consists of five batteries, having different cell technologies and coming from different suppliers, piloted separately or as a whole for a total of 6 MW/6MWh. This initiative is one of the first storage installations in Belgium dedicated to the frequency regulation service with batteries. ENGIE Laborelec actively contributed to the project by defining technical requirements and selecting the suppliers. ENGIE Laborelec is in charge of the monitoring of the batteries in the long term, which will be implemented through its battery health monitoring services. The fifth technology was chosen with a higher C-rate to enlarge the flexibility of the whole system.
Discover more on: www.engie.be
The H2020 STORY project is researching new energy storage technologies and their benefits in the distribution networks and involves 18 Partner Institutions in 8 different European countries.
Preliminary results obtained in STORY’s Spanish plant demonstrate that even with the regulatory restrictions applied, the peak power can be reduced by about 20% as well as the energy consumption from the grid during peak hours (17.00-23.00) to amount to overall savings of up to 8%. Estimates from simulations with an advanced energy management strategy allowing the battery to charge from the grid, reveal that power peak reductions of up to 50% in peak hours and overall savings up to 20% are possible.
Discover more about the STORY project on: http://horizon2020-story.eu/
Island grids and off-grid microgrids require stable sources of power and are the most sensitive to power fluctuations from intermittent solar and wind energy generation.
Fraunhofer Institute for Solar Energy Systems ISE has established a flexible hybrid energy storage system using intelligent energy management for reliable and resilient supply of power and energy from renewables. Located on Borkum Island in the North Sea, the storage system consists of 1MW/10kWh of Maxwell ultracapacitors and 500kW/500kWh of Li-ion battery. The ultracapacitors smooth out power peaks and increase the battery lifetime by removing peak power demand and cycling demands from the battery.
Reduces environmental impact and operating cost, increases equipment lifetime
The LM6000 Hybrid Electric Gas Turbine integrates a 10 MW/ 4.3 MWh energy storage battery system and a ground-breaking control system capable of providing quick start and fast ramping to balance variable energy supply.
Variable energy supply happens when renewable production falls following weather conditions or the time of the day. The system provides enough time coverage to allow the gas turbine to start and reach its designated power output. It does not need to burn fuel and consume water in stand-by mode, reducing greenhouse gas emissions and pollution by 60 percent and water consumption by approximately 45 percent. In 2017, the Hybrid EGT received Edison Electric Institute and ESNA innovation awards.
The LM6000 Hybrid Electric Gas Turbine is located in US but has similar use-cases in Europe in optimising the operational profile and the related emissions of fossil fired power plants. Frequency regulation and primary control reserve are already services marketed in Europe and could benefit from the presented hybrid approach.
Providing grid stability & smoothing renewable output
Located in California, this 33MW / 20MWh battery system complements the integration of renewable resources and will increase grid flexibility and reliability by providing solar ramping, frequency regulation, power balancing and black start capability for an adjacent gas turbine.
The black start capability was activated on May 10, 2017, when the newly installed energy storage battery system successfully supplied the electricity needed to start a 44-megawatt combined-cycle natural gas turbine without relying on the external transmission network. To stabilize the power plant, the energy storage battery system was then converted, by design, to become an energy load consumer. Although it is implemented in the US, it has similar use-cases in Europe in optimising the operational profile and the related emissions of fossil fired power plants. Frequency regulation and primary control reserve are already services marketed in Europe and could benefit from the presented hybrid approach.
Tallaght Smart Grid – Maxwell Ultracapacitors Providing Fast Frequency Response
Ireland intends to achieve 40 percent renewable energy by 2020. Most of this electricity comes from large-scale wind farms with only limited connection to the UK. FREQCON deployed Ireland’s first combined ultracapacitor & energy storage facility for the Tallaght Smart Grid Testbed in South Dublin County. The 300 kW / 150 kWh system was developed to demonstrate that a combination of lithium-ion batteries, Maxwell Technologies ultracapacitors, and FREQCON power converters can provide fast frequency response to enable high renewables penetration.
As the share of renewable energies in the electricity mix increases, so does volatility. Therefore, it is becoming increasingly important to be able to store energy on a large scale.
Battery storage technologies are a sensible option. They can help to integrate renewables into the energy system by offsetting their fluctuating, difficult-to-predict generation capacity in the short term. The modular battery storage M5BAT in Aachen, Germany, is ideally suited to test the technical and economic suitability of large-scale battery storage systems. The project started in July 2013 and will run until December 2018. As part of this joint project, Uniper and its partners have installed a stationary battery system in a specially converted building.
The battery system has a storage capacity of 5 MWh and bundles various battery storage technologies. We are currently testing the application possibilities and economic viability of the different battery technologies. The knowledge gained from this project will help us design future strategies for the use of battery storage, deploying the battery technology best suited to meet the local requirements. M5BAT is located next to a transformer and RWTH Aachen University research centres. The battery storage system will be used in various markets for research purposes, for example to provide primary control power. This energy storage system project provides important insights for the entire energy industry and contributes to making battery technologies usable for the energy transition. This is underlined by the partial funding of the project by the German Federal Ministry of Economics and Energy (BMWi).
LAES plant demonstrates how true long-duration energy storage will help balance the grid
On 5 June 2018, Highview Power launched the world’s first grid-scale LAES plant. The 5MW plant at project partner, Viridor’s, Pilsworth land site in Greater Manchester, UK, is capable of powering ~5000 homes for several hours and will demonstrate how LAES can provide a number of reserves, grid balancing and regulation services. In addition, the plant will convert waste heat to power from the onsite landfill gas engines. LAES technology can be scaled up to hundreds of megawatts which would provide enough electricity to power urban areas the size of small towns to large cities.
Horizon2020 project STORE&GO helps explore innovative storage technologies.
For a successful energy transition, we will need large scale energy storage in order to ensure the security of supply. Uniper therefore operates the pilot plant WindGas Falkenhagen, Germany, where we have been demonstrating how renewable electricity can be used for the production of hydrogen by electrolysis, since August 2013. This “green hydrogen” is then fed into the natural gas network effectively storing the excess power produced from renewable electricity generation. The Falkenhagen power-to-gas plant has an output of 2 MW and generates 360 cubic meters of hydrogen per hour. Falkenhagen in Brandenburg is an ideal location due to its high wind generating capacity and the well-developed power and gas infrastructure already in place.
In May 2018 the power-to-gas site was expanded by a methanation plant to offer even more possibilities of storage for renewable energies. The new methanation plant provides for the generation of “green” methane. In this second stage, hydrogen from regenerative energy sources is converted into methane (CH4), i.e. synthetic natural gas (SNG), using CO2 from a bio-ethanol plant. This constitutes an important contribution to the success of the energy transition, because green methane in contrast to green hydrogen can be used in a wider variety of ways. It can be made available to a variety of markets, such as the manufacturing sector, the electricity and heating market as well as the mobility sector. Moreover, it provides for unrestricted use of the natural gas infrastructure, including for transport and storage. This stored energy is then available as backup whenever there is an insufficient supply of solar and wind power.
The new methanation plant was built right next to the PtG pilot plant and consists of several components. A prototype honeycomb catalytic reactor for methanation is installed and is being tested during the project. The methanation plant produces up to 57 m³/h of SNG (at normal pressure and temperature), which equates to an output of 600 kWh/h. By comparison: The same amount of energy could heat a 50-m² apartment for a month. Moreover, the heat generated by the process is used by a nearby veneer plant.
WindGas Falkenhagen is part of the Horizon 2020 project STORE&GO, which aims to bring the technology to a level to be integrated in the daily operation of European energy grids. Uniper Energy Storage GmbH builds and operates the new plant together with thyssenkrupp Industrial Solutions AG, the research centre of the DVGW (German Association for Gas and Water) and the Karlsruhe Institute of Technology (KIT). thyssenkrupp and KIT designed the reactors for methanation and KIT is also providing scientific assistance to the project.
RealValue: Realising Value from Electricity Markets with Local Smart Electric Thermal Storage Technology.
Project Director Rowena McCappin shares insights from the RealValue Horizon 2020 project
Q. What did the RealValue project involve and what was Glen Dimplex’s role?
A. Glen Dimplex was the coordinator of RealValue, a three-year research and innovation project which received €12.5M through Horizon 2020, involving 13 partners across five member states, representing the entire electricity value chain.
Our ‘Quantum’ Smart Electric Thermal Storage space and water heating appliances, known as ‘SETS’, were installed in 750 properties across Ireland, Germany and Latvia and connected to each country’s power grid. The project has delivered a huge leap forward in learning around how small-scale energy storage systems, when aggregated together, can help bring maximum value from clean energy in a more environmentally conscious world.
Q. What were the outcomes of RealValue and the added value for energy storage?
A. RealValue has demonstrated the role that Quantum SETS can play as thermal storage devices for energy balancing, grid security and supply, decarbonisation and integration of RES, network congestion and demand-side management, whilst simultaneously offering enhanced end-user experience in terms of increased comfort and control, and greater energy-efficiency.
As well as proving the effectiveness of the technical solution, within the project building and energy system modelling was carried out to assess the relative suitability of European countries for SETS into the future. Regulatory analysis assessed the market readiness for the RealValue solution and identified the most interesting business cases. We were also highly involved in BRIDGE, the European Commission Initiative for knowledge sharing between Horizon 2020 Smart Grid and Energy Storage projects. This provided unrivalled opportunity to share experiences from RealValue, and learn from other like-minded organisations, which is a crucial aspect of any R&D process.
Q. Where next for Glen Dimplex?
A. We believe that the home of the future will be all-electric and fully connected; Glen Dimplex’s future direction will be defined by this vision. Everyone will be able to become an active player in the energy world, but in a simple way. It will all add up to more energy efficiency, more control, more comfort – and the potential for new revenue streams and lower bills.
How Zinc Bromine Flow Batteries Make Grid Independent Farming Possible
Renewable, low-carbon energy systems are part of the strategy to address global climate change while meeting our energy needs but we are not there yet with these climate friendly systems. Lots of electricity is not consumed at the time it is produced. More energy storage is needed so that electricity is not wasted and can be provided continuously. Clever energy storage strategies and systems are required. One such example is the Photon Farmer. A farmer cannot depend on when the sun shines or when the wind blows to milk his cows.
Farms, the ideal locations for solar and wind energy storage
To run a farm, a lot of energy is needed. Our traditional energy system is based on large, central production facilities and many small users. The production of energy is then in line with the demand. Optimally matching supply and demand is not that self-evident with renewable energy. Here is where bromine-based flow battery technologies can help. The Photon Farmer – a dairy farm located in Vierakker in the Eastern Netherlands – is now testing this revolutionary energy storage system. The 57.5-hectare family-owned sustainable and highly automated farm houses 100 cows, and has a large shed roof with a 50kW rooftop solar system. Just as most farms, there’s even paddock space for windmills if needed. The aim of this project is to make this farm become completely grid independent, and to explore the best business model for storage of locally produced renewable energy. Positive results should serve as an example for other projects inside and outside the agricultural business. With this goal in mind, the Photon Farmer has obtained financial backing from the European Union.
Bromine-based flow batteries are making it happen
The Photon Farmer is the first project in its region to test the Redflow ZBM2 intelligent battery management system, and to profit by it. The Redflow ZBM2 battery is a bromine-based flow battery. It is the ultimate renewable solution for smart grid energy management. The advantages of this energy storage system are notable. Decreasing power demand at peak hours lowers the electricity usage. By deploying power when it is needed the most, energy waste is minimised. And users are assured that operations can continue in the event of power outage. Redflow’s unique battery is fire safe and non-flammable – because of both its design and the used bromine electrolyte – and can operate at high ambient temperatures. With the 100% daily depth of discharge and the delivery of 10 kWh of sustained storage (warranted for 10 years), the flow battery delivers superior energy storage performance. On top of that, there is no loss of energy storage capacity over time.
The reduction of the impact of energy consumption through improved efficiency, and successful deployment of renewable sources, present both financial growth and environmental benefits. That is why – in 2016 – the unique storage design was nominated for the Responsible Care Award by the VNCI, and why BSEF supports this innovation in energy storage.
Discover more on: www.bsef.org
Japan’s New Energy and Industrial Technology Development Organization (NEDO); the Ministry for Economics, Labour and Transport of Niedersachsen of the Federal Republic of Germany; EWE-Verband, an association managing the electric power supply to 17 districts and four cities in Niedersachsen; and EEW Holding have agreed to jointly implement a demonstration project of a large-scale hybrid battery system.
On 19 March 2017, Mr. Furukawa, Chairman of NEDO, Mr. Lies, Minister for Economics, Labor and Transport of Niedersachsen, Mr. Schönecke, Association Director of EWE-Verband, Mr. Bramlage, Deputy Association Director of EWE-Verband, and Mr. Röhler, Managing Director of EEW Holding signed a memorandum of understanding. At the same time, Hitachi Chemical Co., Ltd.; Hitachi Power Solutions Co., Ltd.; and NGK Insulators, Ltd., Japanese companies commissioned by NEDO to implement the project, and EWE AG, an energy provider in Germany, have agreed to collaborate in the project and concluded an implementation document.
The demonstration project is carried out over a three-year period from April 2017 to March 2020 and was launched in Varel, Niedersachsen, which has been actively introducing renewable energy, particularly large-scale wind power, in recent years. The project aims to build a large-scale hybrid battery system using lithium-ion batteries and NAS® batteries that can stabilise the distribution grid, and thereby controlling the electric power supply and demand balance, by charging and discharging storage batteries. Another aim is to establish an innovative business model for electricity trading using the system, in collaboration with Germany’s enera project. The large-scale hybrid battery system was built using lithium-ion batteries from Hitachi Chemical, NAS® batteries from NGK Insulators, and a power grid information and battery control system from Hitachi Power Solutions.
It was designed by taking advantage of the features of lithium-ion batteries with a high power charge/discharge output and of durable, large capacity NAS batteries, combined with a power grid information and battery control system that communicates information in and outside of balancing groups in cooperation with EWE AG’s electricity trading system. Through this system, the four functions of primary control reserve supply, secondary control reserve supply, balancing within a balancing group, and reactive power supply that stabilise local power voltage will be realised to replace the functions of conventional power plants. Electricity trading will be executed in line with the EWE Group’s electricity trading system. The demonstration project also aims to establish business models so as to make the system attractive to power generation and electricity trading companies in and outside of Germany, thereby expanding the hybrid battery system in the future.
“Change” is probably the best word that qualifies the UK energy landscape of the last decade. Through bold decisions and strong commitment on climate, the UK is changing its energy system and paving the way towards a new secure, affordable and low carbon energy future.
When National Grid, the Great Britain system operator, launched its first consultation on Enhanced Frequency Response back in 2016, EDF through its affiliates, engineering teams and R&D arm was among the first to welcome this announcement and put forward its expertise in order to design, build and now operate the largest project awarded at the end of the competitive process. Enhanced Frequency Response is a new dynamic service set by National Grid, where active power must change rapidly (sub 1 second) as a function of the system frequency.
Batteries are of course technically well placed to provide this service due to their fast response to a given power request. Moreover, the technology neutral call for tender issued by National Grid also confirmed that they are cost-competitive for such needs, as winners of the call for tenders were finally all battery storage projects. West Burton B is a CCGT gas power station situated in the county of Nottinghamshire in England, approximately 250km north of London. Commissioned in 2013, it comprises 3 units and has a total capacity of about 1.3 GW.
EDF Ingeum’s engineering skills enabled this pioneering step for EDF to deploy a large battery energy storage asset within a conventional plant to create such an innovative “energy park”. This project also leveraged 25 years of experience in energy storage at EDF’s R&D. Such commitment has enabled the development of key skills and tools to support technology selection, confirm key performance indicators, prototype and validate integrated solution in a representative environment and optimise business models.
In a changing energy landscape, EDF is ramping up its efforts to develop electricity storage solutions and become the European leader in this field. Within the framework of its ambitious electricity storage plant, EDF’s goal is to develop 10 GW of additional storage around the world by 2035 (€8 billion investment), on top of the 5 GW already operated by the Group.
True long-duration energy storage addresses challenges of rising energy demand and balancing the grid
On 5 June 2018, the world’s first grid-scale Liquid Air Energy Storage (LAES) plant was officially launched by Highview Power, the world leaders in LAES technology. The 5MW plant at the Viridor Pilsworth site in Greater Manchester, UK, was opened by Professor John Loughhead OBE FREng FTSE, Chief Scientific Adviser at the UK Government Department for Business, Energy & Industrial Strategy (BEIS). The plant was developed in partnership with recycling and renewable energy company, Viridor, and enabled in part by over £8m of funding from BEIS. The LAES plant, which can provide enough power for about 5,000 average-sized homes for several hours, will undergo a full testing programme during its first year of operation.
Operated remotely by demand response aggregator KiWi Power, the plant will demonstrate how LAES can provide a number of reserve, grid balancing and regulation services. Yet the opportunity is far greater; true long-duration energy storage is critical to enable the broader deployment of renewable energy; overcome the intermittency of solar and wind energy; help smooth peaks and troughs in demand; and provide the UK with a stable and secure source of home-grown energy. LAES technology can scale to hundreds of Megawatts, meeting the peak energy demand of urban areas from small towns to large cities. LAES plants could easily store enough clean electricity generated by a local windfarm to power a town of around 100,000 homes for many days, not just a few hours. And with the demonstration of LAES technology at the 5MW scale, the plant paves the way for the wider adoption of LAES technology globally.
LAES technology makes use of a freely available resource, the air, which is stored as a liquid and then converted back to a gas, involving an expansion process that releases stored energy, and this drives a turbine to generate electricity. In addition to providing energy storage, the LAES plant at Pilsworth converts waste heat to power using heat from the on-site landfill gas engines. LAES plants use no exotic metals or harmful chemicals; the plant comprises mostly of steel, and the components have a design life of between 30 to 40 years. At the end of life, a LAES plant can be decommissioned and the steel recycled. LAES plants can be located at the point of demand which makes them highly flexible and able to supply energy to help urban areas keep the lights on.
Less than 2 km long and 500m large: Sein Island is a small entirely totally disconnected from the mainland. With its own electrical system, the island was totally powered by diesel generators until the beginning of 2017.
Faster than anywhere else, the islanders became aware of the consequences of climate change, especially the rising water that could flood this piece of land if nothing changes. The need for a radical energy transition is obvious. Therefore the local community was eager to take up the challenge early, more than ten years ago, with energy efficiency measures led together with EDF. Sein Island was the first French municipality to be fully equipped with LED public lighting, resulting in an 80% decrease in public lighting energy consumption.
A first PV rooftop and a self-consumption building kicked off the development of renewables on the island in 2016. Since then, very ambitious objectives have been set: renewables shall cover 50% of the electrical needs by 2023, and reach 100% in 2030, making this territory a pioneer and a reference for the rest of the French electrical system. Currently, around 130kW of photovoltaic rooftops are connected to the grid, and a 250kW wind turbine is expected in the next two years. However, the equation is not so simple. The population on the island fluctuates as much as the tides: 120 inhabitants in winter, up to 1500 during the summer period. The electrical system will have to cope with a combination of renewable energy intermittency and rapid load fluctuation. With its expertise on micro-grids, EDF SEI helps Sein island to take up this challenge.
An innovative architecture, developed in collaboration with EDF R&D, enables the insertion of renewables in the grid with the help of a storage system to adapt, offer, demand and ensure the security of power supply. The solution is based on a centralised storage system installed together with an intelligent control system, developed by EDF’s affiliate EDF Store & Forecast. A first 200kW/180kWh li-ion battery was installed in May 2017, enough to enable the target of 50% renewables when the wind turbine will be connected.
The energy optimisation software (Energy Management System) monitors and controls in real time the generation and storage units, and can control other flexibility resources as well, such as demand management. The solutions of this unique project in France could afterwards apply to other micro-grids or non-interconnected areas.
Solar and wind power make a significant contribution to Portugal’s electricity generation capacity and, because these technologies are weather dependent, the grid is vulnerable to fluctuations in supply.
This makes it the perfect place to build a pumped storage plant powered by a state-of-the art technology that helps ensure grid stability. Technology Group Voith supplied the plant with two variable speed pump turbines each with a rated output of 390 MW each, two asynchronous motor-generators with a rated output of 440 MVA each, the frequency converter and control systems as well as the hydraulic steel components. The generator sets are the largest and most powerful of their kind in Europe. The plant operator is the Portuguese utility company Energias de Portugal (EDP).
Variable speed, constant reliability
Thomas König, responsible for Electrical Balance of Plant at Voith Hydro, explains how the technology works: “A conventional synchronous machine turns at a fixed speed in time with the 50 Hz grid frequency. In contrast, the mechanical rotation speed of the doubly fed induction machine (DFIM) machines can vary, which has two main advantages. Firstly, the new systems allow a fast and flexible response to active and reactive demand from the power grid – supply can be varied to meet demand. Secondly, they offer additional stability in cases of a voltage drop, reducing the likelihood of a blackout and enabling the system to resume operation much faster if one occurs. That’s because when the voltage drops by significantly more than 5% below normal, the turbines and DFIM motor-generators at Frades II can retain stability for up to 600 milliseconds – four times longer than a fixed-speed power unit. This can mean the difference between normal operation and a widespread power outage.”
Ultimately, DFIM technology delivers optimal operation in both turbine and pump modes, while fulfilling TSO (role assumed in Portugal by REN) requirements for grid fault behaviour by injecting fast active and reactive power when it is needed in both modes. Another key aspect of this technology (and perhaps the most relevant in terms of value creation) is the ability to provide power variation in pump mode, which can deliver the grid’s needed teleregulation during off-peak hours, making Frades II the only plant in Iberia to do so without having to generate surplus power.
A model for the future
Since the Frades II plant entered commercial operation, it bears Europe’s largest variable-speed units. And because grid stability and ensuring energy supply reliability are becoming more important everywhere, Frades II has provided a template that will be replicated around the world.
The Cirque of Mafate (700 inhabitants) is located in the center of Reunion island, France (Indian Ocean). Due to its morphological features, this magnificent classified UNESCO World Heritage site cannot be connected to the electric grid and was energised with diesel gensets.
EDF (Electricité de France), with the cooperation of POWIDIAN (a French SME), designed an installation that provides electricity produced by 100% renewable sources. This is achieved by using hydrogen-batteries technology, previously tested in mountain refuges, which provides very long term storage capacity. Called SAGES (Smart Autonomous Green Energy System), this installation is made of photovoltaic panels, lithium-ion batteries assuring a short term energy storage (1 or 2 days), and a whole hydrogen system (with a water electrolyser, a hydrogen storage system and a fuel cell) for long term energy storage (almost 5 days). In order to satisfy the user power demand, first, the power produced by the photovoltaic panels is used. When this power is not sufficient, the complementary part is supplied by the batteries. When their state of charge decreases below 30%, the remaining needed power is produced by the fuel cell, using the stored hydrogen.
On the contrary, if the photovoltaic panels produce an excess of power, this excess is used to charge the batteries or to produce hydrogen by the electrolysers. The storage system is currently servicing a school, a medical office and an office of the “Office National des Forêts”. Commissioned in 2017, it successfully guarantees continuous and carbon-free electricity supply since then. The advantages of this technology are many: it allows 100% renewable energy generation, with no pollutants and zero carbon emission, in a landscape where diesel gensets were previously polluting the site. It guarantees security of supply for the inhabitants and especially for public services such as the school and medical office. The economics of this system are also positive, because of the very high supply costs of the fossil fuel previously used in the gensets (due to the specific geographical location of Mafate). Energy storage is one of the key elements of microgrid systems.
This is why EDF has developed specific expertise in microgrid systems and several EDF business units are already developing microgrid projects and solutions in various geographies. For instance, in the US, EDF Renewables work to tailor the wide range of microgrid solutions. In a changing energy landscape, EDF is ramping up its efforts to develop electricity storage solutions and become the European leader in this field. Within the framework of its ambitious electricity storage plant, EDF’s goal is to develop 10 GW of additional storage around the world by 2035 (€8 billion investment), on top of the 5 GW already operated by the Group.
SEV, the Faroe Islands utility, has commissioned Europe’s first fully commercial Li-ion energy storage system (ESS) operating in combination with a wind farm.
The latest step in SEV’s renewable energy programme is a new 12 MW wind farm located in Húsahagi, on the island Streymoy. Since coming on line in 2014, the wind farm has increased the islands’ wind share to 26 percent of total electricity production.
To overcome short-term variations linked to the variable nature of wind, lasting from seconds to minutes, a 2.3 MW Li-ion ESS has been deployed. It provides ramp control to smooth out sharp increases and decreases in power, as well as frequency response and voltage control services. The use of energy storage thereby helps to minimise curtailment of wind generators during periods of high wind and low consumption.
Saft Intensium® Max solution
The 2.3 MW ESS at the Húsahagi wind farm comprises two Saft Intensium® Max High Power containerised Li-ion batteries. They were delivered in standardised 20-foot containers for ease of transportation and installation. Along with the battery modules, they integrate the communications interface, battery management and cooling and fire prevention equipment. The batteries are combined with ENERCON’s power conversion and control equipment. The ESS is designed to limit short term power variations of the wind farm in order to maintain grid stability. Due to the high power capability of the ESS, only 700 kWh of storage capacity are needed for this operation which requires the equivalent of several full discharge cycles per day over an estimated lifetime exceeding 10 years.
Successfully enhancing grid stability for SEV
The Húsahagi ESS was commissioned in December 2015.
Since then, it has reduced the variability of power flows at the grid connection point (up to 5MW/min) by a factor of 15 to 20. As a result, the standard deviation of the grid frequency is reduced by about 50%. Furthermore, curtailment is reduced as SEV can operate the plant in period of strong wind variations, which increases the energy production by 5GWh per year and saves 1000t of fuel.
With SEV’s operational expertise in renewable energy allied to Saft’s leading-edge energy storage technology it is already making a significant contribution to enhancing grid stability.
Saft ESS solution- key benefits
On 2 July 2018 the European Energy Storage Association (EASE) and Delta-ee (Delta Energy and Environment) have published EMMES 2.0 – the definitive guide for the European Energy Storage market published every 6 months.
Read now the EMMES 2nd Edition Press Release
On 5 June 2018, the European Association for Storage of Energy (EASE) published a study estimating the energy storage capacity that would be needed in order for Europe to achieve its decarbonisation targets.
Read now the full press release!
The European Association for Storage of Energy (EASE) is proud to announce the launch of its third annual Student Award, recognising outstanding graduate student research in the field of energy storage.
The winning student will be a guest at the EASE-organised Energy Storage Global Conference, which will take place in Brussels on 24-26 October 2018. He or she will be recognised during the opening day of the conference and will be invited to attend all conference events free of charge.
The selection of the winning student will be done by the EASE Secretariat and a selected committee of members. The selection procedure is based on the abstracts provided by students in the application form. Students will be judged on the quality of the responses, the research design, and on the relevance of the research topic to the Energy Storage industry. The winner will be informed by mid-September 2018.
Applicants must either currently be enrolled as a student or have completed an MSc or PhD programme at an accredited EU university between July 2017 and June 2018. The thesis which is the basis for the application must focus on an energy storage-related topic. Eligible papers are BSc or MSc theses submitted during the above mentioned period. EASE will be able to evaluate abstracts written in English, but the thesis papers could also be in German or French. For papers written in other languages, applicants are asked to contact the EASE Secretariat prior to submitting their application to verify whether the Secretariat has the requisite language skills.
Applicants must be available to attend Energy Storage Global Conference on 24-26 October 2018. Applicants from outside the EU should already be in possession of a valid visa allowing them to travel to Belgium in October 2018. EASE will only cover basic travel and accommodation costs for the event from locations within the EU or candidate countries. By submitting their application, candidates agree to allow their personal data, including the completed thesis, to be shared with EASE members.
Please complete the application form in full (personal information, abstract), attach your (draft) thesis, and return both documents to firstname.lastname@example.org no later than Tuesday, 24.07.2018. Candidates who do not comply with the eligibility criteria will be disqualified.
If you have any questions, please contact: Ms Brittney Elzarei, EASE Senior Policy Officer, at +32 2 7432982.
We would like to extend a warm welcome to EASE newest member BSEF- The International Bromine Council!
The International Bromine Council is the voice of the bromine industry. BSEF fosters technologies & innovation for the changing needs of society globally.
Thanks to the International Bromine Council for joining EASE in 2018! Discover more about EASE membership
Published twice per year, the report offers a comprehensive geographical coverage of energy storage installations in Europe, broken down into 8 regions: Germany, United Kingdom, Italy, France, Iberia, Nordics, Central/Eastern Europe and rest of Europe. Each edition includes an overview of EU policy and future changes, a forecast of the European storage market in 2018 and an overview of the thermal storage market.
Read now the full press release: Press Release EMMES
On 22 November 2017, the European Association for Storage of Energy (EASE) General Assembly, representing 38 companies across the energy storage value chain, elected Ms Eva Chamizo Llatas, Director of European Affairs and Head of the Iberdrola Brussels Office, to serve as the new EASE President. Ms Chamizo Llatas is an expert in European Union Law and served as Head of the Legal Service of the Spanish Permanent Representation to the European Union from 2001 until 2015.
Read now the full press release: Ms Eva Chamizo Llatas takes over EASE presidency on 1 January 2018
On 8 November 2017 the European Association for Storage of Energy (EASE) organised in Brussels its first Energy Storage Investor Workshop. More than 50 delegates from all across Europe and worldwide attended the workshop, where 13 speakers from financial institutions, industry and representatives of the European Commission, the European Investment Bank and the European Parliament presented.
Read now the full press release on the EASE Investor Workshop
On 18 October 2017, the European Association for Storage of Energy (EASE) and the European Energy Research Alliance (EERA) presented the updated EASE-EERA Energy Storage Technology Development Roadmap to the European Commission at a launch event attended by key stakeholders from across the energy sector.
Patrick Clerens, EASE Secretary General, and Mathias Noe, Coordinator at the EERA Joint Programme Energy Storage, officially presented the document to Mr Jose Cotta, Head of Unit for Advanced Energy production at the Directorate General for Research and Innovation of the European Commission, and Mr Dimitrios Sofianopoulos from the New Energy Technologies, Innovation and Clean Coal Unit at the Directorate for Energy.
Read now the full press release: EASE-EERA Energy Storage Technology Development Roadmap presented to European Commission
EASE is happy to announce the winner of the second edition of the EASE Student Award contest: Oliver Schmidt!
The EASE Student Award recognizes outstanding graduate student research in the field of energy storage. It is awarded every year to one student who has completed a thesis on energy storage at an accredited EU university. Oliver presented his work on the 18th October 2017 during the EASE-EERA Energy Storage Roadmap Launch Event and had the opportunity to meet with members from the various EASE bodies.
In his paper “The future cost of electrical energy storage based on experience rates” Oliver and his co-authors derive a new dataset of experience curves that enables researchers, policymakers and industry to make future cost projections by including their own assumptions and engage in evidence-based discussions on how the energy storage industry as a whole might evolve.
|This research is a first-of-its-kind compilation of data on price and cumulative installation development for the most promising electricity storage technologies.
Oliver is a PhD Researcher in Energy Storage at the Imperial College London and holds an MSc degrees in Sustainable Energy Futures. During his studies, he developed a strong interest in energy storage focusing on the future costs of energy storage and its value in low-carbon energy systems.
“EASE is always willing to promote additional research and development done by young graduates in the field of energy storage” said Patrick Clerens, EASE Secretary General. EASE believes that there is no transformation of the energy industry without energy storage.
Renewing the congratulations to Oliver from all EASE members, EASE would also like to thank all students who applied to the contest.
The “The future cost of electrical energy storage based on experience rates” paper is published in Nature Energy and it is available for download here.
ETIP SNET presented its Implementation Plan (IP) 2017-2020 on 5th October 2017 during European Utility Week 2017 in Amsterdam. The IP is the result of a long and wide-ranging consultation process.
Over the last year, more than 200 ETIP SNET members, through various working groups, took part in the IP’s elaboration. In a second review phase, the paper also gathered nearly 70 responses from all stakeholders of the energy system via an online public consultation. This makes it a widely recognised report by all the actors of the energy transition.
The following four key priorities, which R&I projects, should focus on in the future are identified via 39 different “topics”:
The Implementation Plan can be downloaded HERE
More information: www.etip-snet.eu
EASE has published its Position Paper on Thermal Energy Storage (TES), which highlights the role of TES in supporting the energy transition. The paper outlines the applications and key features of TES systems and explains how the heating and cooling sector is important for the transition to a low-carbon energy system. Smart heat concepts, including thermal storage concepts, have the potential to provide the needed flexibility options – storage, demand response, and smart operation – on the short term and at a relatively low cost.
EASE proposes three concrete short-term actions that can further leverage the actions proposed by the Commission in the “Clean Energy for All Europeans” Package:
These proposals would support the EU’s goals to empower consumers, improve energy efficiency, and decarbonise the energy sector, including the often underexposed heating and cooling sector, in a cost-effective way.
To read the full press release, please click here…
EASE member Highview Power Storage has been awarded funding of £1.5 million for a new hybrid configuration of its existing Liquid Air Energy Storage (LAES) system from Innovate UK, the UK’s innovation agency.
For more information, click here.
The European Association for Storage of Energy is proud to announce the launch of its second annual Student Award, recognising outstanding graduate student research in the field of energy storage.
The winning student will be recognised publicly on the EASE website and social media and will be a guest at the EASE-organised Annual Event, which will take place in Brussels on Wednesday, 22.11.2017. EASE will cover transportation to and from Brussels as well as accommodation for the winning student. Additionally, the winner will have the opportunity to present his/her thesis at the EASE General Assembly taking place on 23.11.2017. Both are valuable opportunities to network with industry leaders in the energy storage sector and to learn about the latest policy and research developments in the field.
For more information on the selection procedure, the eligibility criteria and to apply, please click here.
Deadline to apply: Friday, 18.08.2017
The European Association for Storage of Energy – EASE is planning to award a contract for the elaboration of a Cost-Benefit Analysis method to evaluate the impact of 15 vs 30 minutes activation period for energy storage providing Frequency. Containment Reserve (FCR).
The procurement documents consist of :
Deadline: Wednesday, 12 June 2017
EASE has published its position paper “EASE Recommendations on Sectoral Integration Through Power-to-Gas/Power-to-Liquid”
By using electricity generated from renewable energy sources (RES) to produce Green Hydrogen and other energy carriers, PtG and PtL belong to the few energy storage technologies available to store large amounts of energy seasonally and provide it on-demand to different sectors and applications. They have the potential to contribute significantly to the integration of renewable electricity into various sectors of the energy system, hence to support the objectives of the “Clean Energy for All Europeans” Package and the long-term vision of the Energy Union.
However, some key regulatory barriers are still blocking developments in the PtG and PtL sectors. To overcome these hurdles, EASE recommends some measures.
To read the full press release, please click here…
We would like to extend a warm welcome to EASE newest members: Voith Hydro and CEA!
To learn more about them and their involvement in storage, please visit www.voith.com and www.cea.fr
EASE has published its position paper “Energy Storage Deployment Hampered by Grid Charges” calling for a coordinated approach to defining grid tariffs for storage that recognises its alleviative effects on grid constraints and grid extension costs, while contributing to reduced curtailment of CO2 free electricity generation.
To read the full press release, please click here…
The European Association for Storage of Energy – EASE is planning to award the contract for the Cost Benefit Analysis Modelling within the project “TSO 2020: Electric “Transmission and Storage Options” along TEN-E and TEN T corridor for 2020 – Framework of the Connecting Europe Facility 2017-2020 – Synergy Call for proposal 2016-1 .
The procurement documents consist of :
Deadline: Wednesday, 7 June 2017
EASE is pleased to announce that the project “TSO 2020: Electric “Transmission and Storage Options” along TEN E and TEN T corridors for 2020” has been selected for funding through the Connecting Europe Facility (CEF) funding instrument.
Under the coordination of the Dutch Ministry of Infrastructure and Environment, EASE – in partnership with TenneT TSO, Nederlandse Gasunie, Green Planet Real Estate, TU Delft, and Stichting Energy Valley – will assess and value the key role of energy storage in the electricity transmission system by exploiting synergies between energy storage solutions and alternative transport infrastructure needs.
To read the full press release, please click here…
EASE is glad to have contributed to the May 2017 highlight on the energy transition of the Brussels Airlines magazine b.inspired!
Energy storage has the potential to play a vital role has the world transitions from traditional energy to renewable, sustainable energy sources…
To read the full article, click here.
Our member Fundación CIRCE is looking for researchers to join its team of experts.
Up to 12 positions in several fields of the renewable energy and energy efficiency sectors.
We would like to extend a warm welcome to EASE newest member: EXIDE Technologies!
To learn more about them and their involvement in storage, please visit www.exide.com
EASE welcomes the Commission Staff Working Document on Energy Storage, which complements the “Clean Energy for All Europeans” Package issued in end-November 2016 and provides a valuable contribution to the policy debate. The European Commission recognises the value of energy storage as a source of system flexibility, and the subsequent need for a wide range of energy storage technologies capable of providing multiple services to the energy system.The document also outlines four principles on the way forward for energy storage.
To read the full press release, please click here…
We would like to extend a warm welcome to EASE newest member: SEAS-NVE!
To learn more about them and their involvement in storage, please visit www.seas-nve.dk
The new 10 year ETIP SNET Research & Innovation (R&I) Roadmap 2017-26 provides the system view to the entire energy transition by addressing a scope larger than smart electricity grids: it also encompasses interactions with the gas and heat networks and focuses on integration of all flexibility solutions into the power system, including energy storage technologies.
“For Europe to integrate over 50% of variable renewable energy such as wind or solar efficiently and reliably into its power system in the future, the electricity networks will need to be able to utilise all kinds of flexibility. They will be the heart of the overall climate-friendly energy system through smart interactions with gas networks and heating and transport systems,” says Konstantin Staschus, Chairman of the ETIP SNET.
The R&I activities for the decade to come, as described in the Roadmap, synthesize consolidated and balanced stakeholder views and rely on systematic monitoring and reviews of national, European and international projects.
The full implementation of all R&I activities is estimated at 2.5 billion euros needed to finance innovation over the next decade both for transmission and distribution systems, and to be co-financed from the public and private sector. The RD&I priorities defined in the Roadmap are organised in clusters and functional objectives. The clusters give an indication of the prioritised topics: modernisation of the network; integration of smart customers and buildings; security and system stability; power system flexibility from generation, storage, demand and network; integration of decentralized resources of these kinds; economic efficiency and digitalization of the power system; network operations; and planning and asset management.
The ETIP SNET Roadmap is available for download here, it is an update and significant extension of the previous EEGI roadmap 2013-2022.
More information about the ETIP SNET can be found on www.etip-snet.eu
The European Association for Storage of Energy (EASE) and the Joint Programme on Energy Storage under the European Energy Research Alliance (EERA) have come together to draft an updated Energy Storage Technology Development Roadmap.
The roadmap provides a comprehensive overview of the energy storage technologies being developed in Europe today and identifies the RD&D needs in the coming decades. On this basis, the roadmap provides recommendations for R&D policies and regulatory changes needed to support the development and large-scale deployment of energy storage technologies. The aim is to inform policymakers for research, innovation, and demonstration in the energy storage sector in order to further strengthen Europe’s research and industrial competitiveness in the energy storage industry. This updated roadmap comes four years after the publication of the first joint EASE-EERA technology development roadmap on energy storage.
EASE and EERA are pleased to launch a public consultation on the draft Energy Storage Technology Development Roadmap. We wish to include a wide range of views from stakeholders, as this is an important element to ensure a comprehensive and constructive document. All interested stakeholders with a stake in the development of the European energy storage industry are therefore welcome to participate in this public consultation.
The documents for consultation are available below. You may download and provide feedback on the entire roadmap, or you may choose to review only certain chapters.
We kindly ask you to provide clear, detailed feedback on the draft roadmap by proposing modifications to the text using track changes.
More general feedback can also be provided via e-mail. However, please keep in mind that specific, concrete feedback will be easier for EASE and EERA to integrate into the roadmap text.
Please send the documents containing your comments and modifications to Brittney Becker (EASE Policy Officer) at email@example.com no later than Friday, 17 February 2017 (EOB).
Following the public consultation, a one-day workshop is foreseen on Wednesday, 15 March 2017, in Brussels. To register, please click here.
The workshop will provide an opportunity for stakeholders to learn more about the roadmap effort, to provide and discuss feedback, and to agree on any open questions brought up in the course of the public consultation. The public consultation document with the merged comments and changes will be distributed to workshop participants prior to the workshop.
Full EASE/EERA Roadmap (click here to download the full roadmap)
If you have any questions or require additional information, please contact Brittney Becker via e-mail (firstname.lastname@example.org) or by phone (+32 2 743 29 82).
The new European Technology and Innovation Platform Smart Networks for Energy Transition (ETIP SNET) just launched its activities last week and is seeking experts to take an active part in five Working Groups. The Working Groups (WGs) will address matters such as: the reliability and efficiency of the smart grid system, storage and interface to other energy networks, flexibility of generation, digitalisation of the energy system and exploitation of research results.
The ETIP Working Groups are to ensure the involvement and contribution of all the stakeholders of the energy system as a whole, providing vision, inputs, guidance and continuous feedback for the development of the integrated R&I Roadmap. The WGs gather experts representing the widest community of stakeholders related to their area of expertise. Experts acting in the Working Groups aim at providing strategic guidance about RD&I priorities and activities, ensuring the interaction and involvement of the entire expertise needs raised by the integration issues of the electricity system into the wider European energy system. Experts contribute to the WG on a voluntary basis and no reimbursement of expenses is foreseen.
The 5 active working groups of the ETIP SNET are:
More information on the working groups and their Terms of Reference are available here.
If you are an expert in this field and you are willing to contribute in setting this vision, please send you candidature through this link.
(Important: candidatures received through other channels will not be considered)
Deadline: Friday, 20.01.2017 at 17:00 (CET)
The new European Technology and Innovation Platform Smart Networks for Energy Transition (ETIP SNET), created in the framework of the EU’s new Integrated Roadmap of the Strategic Energy Technology Plan (the SET Plan), has the aim to guide research, development and innovation to support Europe’s energy transition with innovation for the transmission and distribution systems. These systems form the technical and market platforms where clean electricity generation, empowered customers, storage technologies, smarter grids and interfaces to gas, heat and transport networks make the energy transition happen in secure and affordable ways.
Chair: Cristina La Marca, ENEL (DSOs, Storage, Flexible and RES Generation)
Co-chairs: Carlos Arsuaga, CIRCE (Research and Academia) and Mathilde Bieber, G.E (Equipment suppliers)
Additionally, EASE also welcomes the nomination of Dr Emmanouil Kakaras, MHPSE on behalf of EPPSA and EASE (Equipment suppliers, Storage and Sector Interface) as Chair of WG5: Innovation implementation in the business environment.
We have come to the end of the year, making this the time to reflect on what we have achieved and also to thank our members, team and colleagues who have contributed to spreading EASE messages in support of energy storage throughout 2016.
Here are some of our 2016 highlights:
Additionally, if you would like further information on…
Lastly, for the latest news and updates on EASE and energy storage, you can also follow us on Twitter (@EASE_ES).
Thank you again to all those who contributed to our activities this year. We are excited to see what 2017 will bring for EASE and for the larger energy storage community!
If you have any questions, don’t hesitate to email us at info[@]ease-storage.eu
EASE is very pleased that the European Commission has published its Communication on Accelerating Clean Energy Innovation which lays out a framework for action to increase public and private investments in low-carbon technologies and pushes for the development of clean energy business models. The Communication recognises the importance of energy storage by designating it as a priority area for clean energy research and innovation, alongside electro-mobility, decarbonisation of the building stock, and the integration of renewables.
Read the full press release here…
EASE compliments the European Commission on the Electricity New Market Design Package that was just released.
The proposed regulation is quite comprehensive and a very good start. EASE welcomes the definition of energy storage included in the revised Electricity Directive, supporting investment certainty. It foresees technology and application evolution and does not limit energy storage to electricity-in/electricity-out; rather, it encompasses ‘power-to-x’ and thermal heat energy storage systems.
Read the full press release here…
“Energy Storage is a prerequisite for more renewables”
Vice-President Šefčovič at the closing day of the successful Second Energy Storage Global Conference
From the 27th to the 29th of September 2016, the European Association for Storage of Energy (EASE) organised in Brussels the second Energy Storage Global Conference.
More than 220 delegates attended the Conference, which saw 49 speakers from the industry, research centres and international bodies from the electricity, renewables and storage sectors, as well as representatives from the European Commission, the European Parliament and national administrations.
Read the full press release here…
EASE is glad to announce its five recommendations concerning the Ownership of Energy Storage.
The European Union should provide a clear legislative framework on ownership for the Energy Storage industry in order to support investment in the sector. Therefore, EASE is calling upon the EU institutions to take these recommendations into account in the upcoming revision of the Renewable Energy Directive, the Energy Efficiency Directive, and especially the New Energy Market Design legislation (“Winter Package”).
Read the full press release here…
EASE welcomes the adoption of the ITRE Report “Towards a New Energy Market Design”, proposed by MEP Werner Langen (EPP, DE). It was approved today by the European Parliament in its plenary session in Strasbourg with 454 votes in favour and can be seen as a clear sign that energy storage should play a major role in this new framework.
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We would like to extend a warm welcome to EASE newest member: LGChem!
To learn more about them and their involvement in storage, please visit www.lgchem.com
EASE is pleased to announce its Student Award Winner!
EASE is happy to announce the winner of the first edition of the EASE Student Award contest: Eduard Ignatev! He will now have the opportunity to attend the second edition of the Energy Storage Global Conference, which will take place in Brussels on 27-29.2016, as well as to collaborate with some of the EASE bodies.
His thesis on Performance Degradation Modelling and Techno-Economic Analysis of Lithium-Ion Battery Energy Storage Systems was selected because of his innovative and highly topical research on the application of lithium-ion batteries to provide primary frequency regulation.
Eduard holds MSc degrees in Electrical Engineering from the Lappeenranta University of Technology (Finland) and Moscow Power Engineering Institute. During his studies, he developed a strong interest in energy storage as part of the smart grids and sustainable infrastructure development. In the future he hopes to specialise in designing and engineering power systems while promoting trendsetting technology solutions such as energy storage.
“EASE is dedicated to promoting young talents in the field and will continue to support students who are keen to contribute to the development and research of energy storage”, said Patrick Clerens, EASE Secretary General. “We look forward to welcoming Eduard to our Global Conference and to involving him in the work of EASE bodies.”
Renewing the congratulations to Eduard from all EASE members, EASE would also like to thank all students who applied to the contest.
EASE is happy to announce that the European Technology and Innovation Platform for Smart Networks for the Energy Transition (ETIP SNET) nominated Mr Thierry Le Boucher, EASE Vice President, EDF, as one of its two Vice Chairmen.
Read the full press release here…
The Grid+Storage consortium is glad to announce the publication of their draft research and innovation (R&I) roadmap 2016-2025, integrating for the first time energy storage issues into electricity network activities.
The development of this integrated roadmap has been based on a thorough monitoring of past and ongoing research projects and on the gathering of research and innovation needs identified by European stakeholders during 9 regional workshops.
All stakeholders of the electricity value chain and of other energy networks are invited to provide feedback about the detailed activities foreseen in the roadmap which should drive the energy storage and smart grids R&I strategy at European level for the next decade.
The public consultation is running up to 5 July 2016. Online questionnaires are available on Grid+Storage website
For websites other than Grid+Storage:
About Grid+Storage: Complementing the activities performed so far by the European Electricity Grid Initiative (EEGI) and the Grid+ project, a consortium formed by TECHNOFI, EASE, EDSO, ENTSO-E, RSE and VITO has been selected by the European Commission to support DG Energy and the Member States in defining a European R&D roadmap integrating energy storage into grid research and innovation activities, both at electricity transmission and distribution levels. More information at http://www.gridplusstorage.eu/.
In the framework of the COP21, EASE would like to present a paper to highlight the importance of Energy Storage as a Decarbonisation Enabler as well as the challenges ahead of us.
Read the full paper here…
EASE supports the Market Reforms proposed by the European Commission
Download full version here.
Three years after the creation of the European Association for Storage of Energy, the presidency is renewed for the first time.
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From the 19th to the 21st of November, EASE, the European Association for Storage of Energy, organised the first Energy Storage Global Conference in the Cercle National des Armées in Paris, together with ESA and ATEE-CSE (respectively the American and French Energy Storage Association), DG Joint Research Centre and DG Energy of the European Commission and Sandia National Laboratories.
More than 150 delegates attended this first conference, which saw 40 speakers from the European Commission, the National Administrations, Industry, Research Centres and other National & International bodies.
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The European Association for Storage of Energy (EASE) welcomes the creation of GESA, the Global Energy Storage Alliance.
On April 1st,2014 GESA was jointly founded by the California Energy Storage Alliance (CESA), the German Energy Storage Association (BVES), the China Energy Storage Alliance (CNESA), the India Energy Storage Alliance (IESA), the US Energy Storage Association (ESA), and the Alliance for Rural Electrification (ARE). The main aim of this international body is to advance education, collaboration, knowledge and proven frameworks about the benefits of energy storage globally.
EASE, as the voice of the energy storage community, actively promoting the use of energy storage in Europe and worldwide, supports the vision and aims of the Global Energy Storage Alliance and looks forward to a fruitful cooperation of both associations in the future.
European Association for Storage of Energy (EASE) unveils www.ease-storage.eu as a tool to help develop and promote the use of energy storage in Europe and worldwide.
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A group of Europe’s leading players in the energy sector, including manufacturers, utilities and academic bodies, came together in Brussels on September 27 to sign the formal constitution for the creation of the European Association for Storage of Energy (EASE). This international non-profit association is focused on acting as a coherent voice to promote the roles of energy storage as key enabling technologies for Europe’s transition towards a sustainable, flexible and stable energy system.
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EASE presented its contribution to ENTSO-E’s Cost-Benefit Analysis (CBA) Methodology for Energy Storage projects in the context of the EUropean energy infrasturcture priorities and ENTSO-E’s Ten Year Development Plan (TYNDP) at today’s Stakeholders Workshop.
ENTSO-E’s CBA methodology of Drid Development Projects
The new European Regulation on guidelines for the implementation of European energy infrastructure priorities came into force on 15 May 2013.
In this context, ENTSO-E, the European Network of Transmission System Operators for Electricity, is developing a CBA methodology with the purpose of:
ENTSO-E has asked EASE to provide insights on a CBA for energy storage projects, an assessment to be used for the evaluation of storage devices on transmission systems.
EASE delivered the requested input commenting on the validity and suitableness of the proposed indicators for energy storage projects, and developing a specific environmental indicator “social and environmental sensibility” for energy storage technologies.
In this context, EASE favours a CBA method for energy storage as close as possible to the CBA method for interconnections.
Overall, EASE welcomes this initiative and recognises the usefulness of elaborating a CBA method in order to assess the importance of storage for the electrical system, within the European energy infrastructure priorities and the TYNDP framework.
Finally, EASE looks forward to closely collaborating with ENTSO-E in the 2016 TYNDP.
To read EASE’s contritution click here
EASE and EURELECTRIC sign Memorandum of Understanding on cooperation to promote energy storage
Last Tuesday in Malta, on the occasion of EURELECTRIC’s Annual Convention & Conference, EASE’s Secretary General, Patrick Clerens, and EURELECTRIC’s Secretary General, Hans ten Berge, signed a Memorandum of Understanding concerning collaborative work between the two associations on topics of mutual interest.
The Memorandum of Understanding (MoU) formalises the terms and conditions for the exchange of information between the two organisations, ensuring proper legal protection and balanced cooperation on a series of topics of common interest in the field of energy storage. It also foresees the possibility of cross-party participation in specific reviews or working groups and joint events.
Both EASE and EURELECTRIC look forward to utilising this new framework to achieve an even more fruitful dialogue between the two organisations.
EASE and ESA sign Memorandum of Understanding on cooperation to promote energy storage
Last Thursday in Washington DC, on the occasion of ESA’s 22nd Annual Meeting, EASE’s Secretary General, Patrick Clerens, and ESA’s Executive Director, Brad Roberts, signed a Memorandum of Understanding concerning collaborative work between the two associations on the relevant issues regarding energy storage and its development and integration.
The Memorandum of Understanding (MoU) formalises the terms and conditions for the exchange of information between the two organisations, ensuring proper legal protection and balanced cooperation on a series of topics of common interest in the field of energy storage. It also foresees the possibility of cross-party participation in specific reviews or working groups and joint studies.
Both EASE and ESA look forward to utilising this new framework to achieve an even more fruitful dialogue between the two organisations.