Demand side management

Demand side management

  • Sustainable and Integrated Energy Systems in Local Communities

    Project dates: 01. May 2021 - 30. Apr 2025

    Objective

    The aim of the SERENE project is to develop and demonstrate sustainable, integrated, cost-effective and customercentric solutions for local communities. The idea is to integrate different energy system carriers and new renewable generation units in the local communities based on their social and technical status today to meet their energy needs in the coming years. The users has to be involved in the changes of the energy system and be informed about different technical opportunities and business cases to make decisions about their participation. Depending on the actual site, the new energy system involve different storage technologies (battery energy storages, heat storages, water storage-systems), demand response systems to enhance the flexibility of the systems (activating for instance electric vehicle charging stations and heat demand supplies), electric transportation systems like electrical vehicles or buses, heating system improvements using heat-pumps and integration of new renewable generation sources mainly in form of photo voltaics. The SERENE project will establish demonstrations in local villages in three European countries - Denmark, The Netherlands and Poland. The experiences gained at the demonstration sites will be analyzed and evaluated for replicability in firstly Europe but also world wide. Technical benchmark models and solutions will be set up together with their business models, and it is evaluated how different legal aspects form the involved countries will affect the possibility for replication. Further, the needed user involvement and their interest to join are evaluated seen from both geographic, social, environmental and economic conditions and characteristics.

    Impact

    a) Validate solutions for decarbonisation of the local energy system while ensuring a positive impact on the wider energy infrastructure, on the local economy and local social aspects, and local air quality.
    b) Enhance the involvement of local energy consumers and producers, preferably by creating energy communities in the development and the operation of local energy systems and test new business models.
    c) Validate approaches, strategies and tools to safely and securely operate an integrated local energy system across energy vectors (electricity, heating, cooling, water, wastes, etc.) so that it is able to integrate higher shares of renewables (than it would in case of separate operation of infrastructures).
    d) Benchmark technical solutions and business models that can be replicated in many local regions and that are acceptable by local citizens

    Partners

    Number of partners: 13
    Site numbers:
    7

    Aalborg University

    Skanderborg Kommune

    Aura Energi

    Neogrid Technologies APS

    Bjerregaard Consulting

    University of Twente

    Saxion University

    VERENIGING AARDEHUIS OOST NEDERLAND

    LOQIO SERVICES BV

    INSTYTUT MASZYN PRZEPLYWOWYCH IM ROBERTA SZEWALSKIEGO POLSKIEJ AKADEMII NAUK - IMP PAN

    GMINA PRZYWIDZ

    ENERGA OPERATOR SA

    PAWEL ZDZISLAW GRABOWSKI

    Key Exploitable Results

    • TRL

    • Effective use:
    • Barriers:
    • Additional next steps:
    • Investment needed:
  • Sustainable energy system for achieving novel carbon neutral energy communities

    Project dates: 01. Jan 2021 - 31. Dec 2024

    Objective

    The overall purpose of the H2020 SUSTENANCE project is to set up sustainable energy systems for achieving novel carbon neutral energy communities. The project focuses on the development of smart technological concepts enabling a green transition of the energy systems with higher share of local renewable energy and more efficient integrated energy solutions for the electrical, heat, water, waste as well as transportation infrastructure. The set up solutions will at the same time have good socio-economic impact in the local communities and ensure eco-friendly solutions and good infrastructures, which provides support to sustaining the essentials of life. The demonstration activities are set up in four countries: Denmark, the Netherlands, Poland and India.

    Partners

    Number of partners: 13
    Site numbers:
    4

    Aalborg University

    Skanderborg Kommune

    Aura Energi

    Neogrid Technologies APS

    Suntherm

    Bjerregaard Consulting

    University of Twente

    Saxion Univesity

    Energa Operator

    Stay-On Energy Management

    WÅ‚asnoÅ›ciowa SpĂ³Å‚dzielnia Mieszkaniowa im. Adama Mickiewicza

    Key Exploitable Results

    • TRL

    • Effective use:
    • Barriers:
    • Additional next steps:
    • Investment needed:
  • deMonstration of smArt and flExible solutions for a decarboniSed energy future in Mayotte and other European islAnds

    Project dates: 01. Nov 2020 - 31. Oct 2024

    Objective

    Making islands smart, green and prosperous

    There are more than 2 200 inhabited islands in the EU, many of which depend on expensive fossil fuel imports for their energy supply. The large-scale deployment of local renewable energy sources and storage systems would contribute to decarbonising the energy system. However, this endeavour requires flexible solutions, new tools and efficient frameworks that can be adapted to local needs. The EU-funded MAESHA project will develop smart and flexible methods of storage and energy management as well as modelling tools and technical systems with the aim of promoting the transition towards sustainable energy. Designed with respect to the interests of the local communities, adapted to the market and ready to be disseminated, the new approaches will serve as a demonstration for the future decarbonisation of the Mayotte and other European islands.

    Partners

    Number of partners: 11
    Site numbers:
    1

    TUB

    CENTRICA

    TRIALOG

    E3-MODELLING AE

    CYBERGRID GMBH & CO KG

    CREARA

    HIVE POWER

    HUDARA

    CONSORCIO PARA EL DISENO, CONSTRUCCION, EQUIPAMIENTO Y EXPLOTACION DE LA PLATAFORMA OCEANICA DE CANARIAS

    Euroquality

    Key Exploitable Results

    • TRL

    • Effective use:
    • Barriers:
    • Additional next steps:
    • Investment needed:
  • Distributed Renewable resources Exploitation in electric grids through Advanced heterarchical Management

    Project dates: 01. Sep 2013 - 31. Dec 2016

    Objective

    The DREAM project will lay the foundations for a novel heterarchical management approach of complex electrical power grids, providing new mechanisms for consumer involvement in economical and ecological electricity use as well as stable and cost effective integration of distributed renewable resources. Applying the principles of autonomous agent-based systems to the control and management of the electricity distribution grid will allow the system to constantly adjust to current operational conditions and make it robust to exogenous disturbances. In turn, this will allow for greater penetration of intermittent resources and will make the distribution grid more resilient to failures. DREAM will include several layers of controls for normal, congested and post-contingency situations that will use different coordination strategies ranging from market-based transactions to emergency demand response and create ad-hoc federations of agents that will flexibly adjust their hierarchy to current needs. The system will transition smoothly between control layers depending on local operational conditions, so that responses to disturbances will be sized precisely, margins will be used parsimoniously and full network flexibility will be tapped. The system will involve only limited data transfers and no centralized control, promoting extensibility, heterogeneity and easy deployment across countries with different network architectures and hardware manufacturers. DREAM will demonstrate the economic and technical feasibility of these novel control mechanisms thanks to several real-world small-scale pilots dedicated to different use-cases, and computer simulations will be used to study further scalability. Furthermore, economic viability will be model and examined for the various actors in the grid taking into account the unpredictability of consumer power production, market dynamics, novel regulation schemes and the adoption of DREAM mechanisms over time.

    Partners

    Number of partners: 14
    Site numbers:

    NEDERLANDSE ORGANISATIE VOOR TOEGEPAST NATUURWETENSCHAPPELIJK ONDERZOEK TNO

    FRAUNHOFER GESELLSCHAFT ZUR FOERDERUNG DER ANGEWANDTEN FORSCHUNG E.V.

    ACTVALUE CONSULTING & SOLUTIONS SRL

    TELVENT ENERGIA SA

    KEMA NEDERLAND BV

    SOCIETA PER AZIONI ESERCIZI AEROPORTUALI SEA

    SCHNEIDER ELECTRIC ESPANA SA

    UNIVERSITAET ST. GALLEN

    UNIVERSITAET KASSEL

    ELECTRICITE DE STRASBOURG SA

    TXT E-SOLUTIONS SPA

    Partner Others

    DNV NETHERLANDS BV

    DSOs

    DIACHEIRISTIS ELLINIKOU DIKTYOU DIANOMIS ELEKTRIKIS ENERGEIAS AE

    Research & Innovation

    INSTITUTE OF COMMUNICATION AND COMPUTER SYSTEMS

    Key Exploitable Results

    • TRL

    • Effective use:
    • Barriers:
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    • Investment needed:
  • Arrowhead

    Project dates: 01. Mar 2013 - 28. Feb 2017

    Objective

    "Our society is facing both energy and competitiveness challenges. These challenges are tightly linked and require new dynamic interactions between energy producers and energy consumers, between machines, between systems, between people and systems, etc. Cooperative automation is the key for these dynamic interactions and is enabled by the technology developed around the Internet of Things and Service Oriented Architectures. The objective of the Arrowhead project is to address the technical and applicative challenges associated to cooperative automation: -Provide a technical framework adapted in terms of functions and performances, -Propose solutions for integration with legacy systems, -Implement and evaluate the cooperative automation through real experimentations in applicative domains: electro-mobility, smart buildings, infrastructures and smart cities, industrial production, energy production and energy virtual market, -Point out the accessible innovations thanks to new services, -Lead the way to further standardization work. The strategy adopted in the project has four major dimensions: -An innovation strategy based on business and technology gap analysis paired with a market implementation strategy based on end users priorities and long term technology strategies -Application pilots where technology demonstrations in real working environments will be made -A technology framework enabling collaborative automation and closing innovation critical technology gaps -An innovation coordination methodology for complex innovation ""orchestration"" Date of approval by the ECSEL JU: 29/11/2016"

    Partners

    Number of partners: 84
    Site numbers:

    LYSE AS

    • Partner
    • LYSE AS
    • Norway
    • Budget: 110, 856

    Smart Meter SIA

    METSO AUTOMATION OY

    AKTIEBOLAGET SKF

    SIRRIS HET COLLECTIEF CENTRUM VAN DE TECHNOLOGISCHE INDUSTRIE

    AITIA INTERNATIONAL INFORMATIKAI ZARTKORUEN MUKODO RT

    RIGAS TEHNISKA UNIVERSITATE

    ULMA EMBEDDED SOLUTIONS S COOP

    PS-TECH B.V.

    TECHNISCHE UNIVERSITAET GRAZ

    INSTITUT POLYTECHNIQUE DE GRENOBLE

    BNEARIT AB

    INFINEON TECHNOLOGIES AUSTRIA AG

    AVANTUNE SRL

    INDRA SOFTWARE LABS SLU

    FUNDACION TEKNIKER

    NorDan AS

    • Partner
    • NorDan AS
    • Norway
    • Budget: 81, 447.203125

    OULUN YLIOPISTO

    DEVELCO PRODUCTS AS

    CENTRO RICERCHE FIAT SCPA

    STIFTELSEN SINTEF

    FAGOR ELECTRONICA, S. COOP.

    SCHNEIDER ELECTRIC INDUSTRIES SAS

    AIRBUS OPERATIONS SAS

    MIDROC AUTOMATION AB

    TTY-SAATIO

    AKTIEBOLAGET ELEKTRONIK-KONSTRUKTION INNOVATION

    FULLY DISTRIBUTED SYSTEMS

    FUNDACION TECNALIA RESEARCH & INNOVATION

    THALES SIX GTS FRANCE SAS

    MONDRAGON GOI ESKOLA POLITEKNIKOA JOSE MARIA ARIZMENDIARRIETA S COOP

    COMMISSARIAT A L ENERGIE ATOMIQUE ET AUX ENERGIES ALTERNATIVES

    HSSMI LIMITED

    FOTONIC I NORDEN AB

    FOMENTO DE SAN SEBASTIAN SA

    CENTRE FOR ENGINEERING AND MANUFACTURING EXCELLENCE LTD LBG

    EUROTECH SPA

    SODIMAS SA

    • Partner
    • SODIMAS SA
    • France
    • Budget: 94, 918.6015625

    BOLIDEN MINERAL AB

    EVOLARIS NEXT LEVEL GMBH

    OUTOKUMPU STAINLESS OY

    WAPICE OY

    • Partner
    • WAPICE OY
    • Finland
    • Budget: 67, 217.5

    INSTITUTO SUPERIOR DE ENGENHARIA DO PORTO

    EISTEC AB

    • Partner
    • EISTEC AB
    • Sweden
    • Budget: 67, 668.6015625

    NXP SEMICONDUCTORS FRANCE

    INTEGRASYS SA

    UNINOVA-INSTITUTO DE DESENVOLVIMENTO DE NOVAS TECNOLOGIAS-ASSOCIACAO

    PERSONAL SPACE TECHNOLOGIES BV

    GEWISS - SPA

    INDRA SISTEMAS SA

    MIDROC ELECTRO AB

    CAMPUS 02 FACHHOCHSCHLUE DER WIRTSCHAFT GMBH

    OUTOKUMPU CHROME OY

    THT CONTROL OY

    MAGILLEM DESIGN SERVICES SAS

    UNIVERSITE JOSEPH FOURIER GRENOBLE 1

    NEOGRID TECHNOLOGIES APS

    CESKE VYSOKE UCENI TECHNICKE V PRAZE

    POLITECNICO DI TORINO

    AVL LIST GMBH

    FORD MOTOR COMPANY LIMITED

    3E

    • Partner
    • 3E
    • Belgium
    • Budget: 111, 286

    BITRON SPA

    UGA-Université Grenoble Alpes

    C2 SMARTLIGHT OY

    ORONA S.COOP

    CORE AS

    • Partner
    • CORE AS
    • Denmark
    • Budget: 38, 968.1015625

    ALMA MATER STUDIORUM - UNIVERSITA DI BOLOGNA

    THE UNIVERSITY OF WARWICK

    FLUIDHOUSE OY - FH

    HONEYWELL, SPOL. S.R.O

    LUOSSAVAARA-KIIRUNAVAARA AB

    SELUXIT APS

    STMICROELECTRONICS SRL

    ARTELYS

    • Partner
    • ARTELYS
    • France
    • Budget: 101, 456

    ZENSE TECHNOLOGY AS-INTELLIGENTE ELSYSTEMER ITES ZENSE BUSINESS ZENSEHOME ZENSE HOMECONTROL

    ACCIONA CONSTRUCCION SA

    AALBORG UNIVERSITET

    TEKNOLOGIAN TUTKIMUSKESKUS VTT

    NODAIS AB

    • Partner
    • NODAIS AB
    • Sweden
    • Budget: 37, 337.19921875

    EVOPRO INNOVATION KFT

    IKERLAN S. COOP

    Research & Innovation

    AIT AUSTRIAN INSTITUTE OF TECHNOLOGY GMBH

    TEKNOLOGIAN TUTKIMUSKESKUS VTT OY

    Key Exploitable Results

    • TRL

    • Effective use:
    • Barriers:
    • Additional next steps:
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  • Measuring Envelope products and systems contributing to next generation of healthy nearly Zero Energy Buildings

    Project dates: 01. Jan 2021 - 31. Jan 2026

    Objective

    MEZeroE is an EU distributed open innovation ecosystem for: (i) developing nZEB Enabler Envelope technology solutions ; (ii) transferring knowledge; (iii) matching testing needs with existing facilities; (iv) providing monitoring in living labs and; (v) standardizing cutting-edge solutions coming from SMEs and larger industries, to foster inclusive change in the building sector, being accessible via a single-entry point to all users. MEZeroE allows the development of ground-based solutions focused on carbon neutrality and healthy indoor environment, validated with advanced assessment methods and services, recognized protocols and long-term vision to embrace industry 4.0 trends, rapid decision making and customer-centric requirements. MEZeroE accompanies enterprises in adopting the open innovation approach comprising discovery (phase 1), empowering (phase 2), and exploiting (phase 3). MEZeroE will be accessed via a single-entry point web-based multi-side virtual marketplace, including 9 Pilot Measurement & Verification Lines (PM&VL) and 3 Open Innovation Services (OIS) covering training, business model development, systematic IP and knowledge management. MEzeroE will fast-track prototypes to the market as fully characterized products. MEZeroE virtual marketplace provides structured knowledge to different stakeholders with a pragmatic and well-grounded mid to long-term ambition of developing and consolidating a trusted expertise network, to be active and self-sustaining well beyond the project timeline. Based on synergies among partners, existing channels and a dedicated marketing strategy MEZeroE will exploit 3 revenue lines to ensure a 4x leverage factor vs. EU contribution. These revenue streams include: (I) memberships (benefit of web-based platform manager); (ii) consultancy for innovation and IPR protection (benefit of OIS developers) and (iii) incremental revenues of industrial partners (benefit of users) thanks to product transferred to market.

    Partners

    Number of partners: 25
    Site numbers:

    RIKO HISE PROIZVODNJA IN TRZENJE D.O.O

    ROTHO BLAAS SRL

    POLITECHNIKA KRAKOWSKA

    VELUX AS

    • Partner
    • VELUX AS
    • Denmark
    • Budget: 301, 175

    FUNDACION TECNALIA RESEARCH & INNOVATION

    INCURVO SL

    TECNOLOGIA NAVARRA DE NANOPRODUCTOS SL

    HELIATEK GMBH

    FLEXANDROBUST SYSTEMS SPOLKA Z OGRANICZONA ODPOWIEDZIALNOSCIA

    NUVAP SPA

    ARBNCO LTD

    • Partner
    • ARBNCO LTD
    • United Kingdom
    • Budget: 278, 299

    ACCADEMIA EUROPEA DI BOLZANO

    FOCCHI SPA

    DANMARKS TEKNISKE UNIVERSITET

    POLITECNICO DI MILANO

    FLEXBRICK SL

    ACONDICIONAMIENTO TARRASENSE ASSOCIACION

    ZAVOD ZA GRADBENISTVO SLOVENIJE

    INDRESMAT SL

    UNIVERSITAET INNSBRUCK

    R2M SOLUTION SRL

    ASSOCIATION COMPAZ

    GREENTEG AG

    INSTITUT DE TECNOLOGIA DE LA CONSTRUCCION DE CATALUNYA

    WINDOWMASTER INTERNATIONAL A/S

    Key Exploitable Results

    • TRL

    • Effective use:
    • Barriers:
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  • Next generation transparent solar windows based on customised integrated photovoltaics

    Project dates: 01. Oct 2019 - 31. Dec 2021

    Objective

    The main goal of Solar-Win is the industrial scale-up, validation under real-world operation conditions (TRL8) and commercialisation of next generation transparent and non-intrusive photovoltaic (PV) windows. The project will result in a unique transparent and electricity-generating window that merges the functionality of a PV module and a window in one, allowing a strong increase in the surface available in the building for generation of PV electricity. Solar-Win will revolutionize the Building Integrated PV (BIPV) and the architectural sectors, by providing a PV window solution featuring a unique set of characteristics, namely: (1) transparent and visually non-intrusive windows (with controlled visible transparency from 40% to 75%) able to generate up to 30 W/m2 of green electricity; (2) full compatibility with existing window manufacturing technologies; (3) lifespan equivalent to standard windows (20 years); and (4) cost effectiveness (cost increase of just 30% with respect to a standard window). To achieve these goals, solar-Win involves two Technology-based SMEs (PHYSEE and SUNPLUGGED from the Smart Window and PV sectors, respectively) coordinated by a flagship RTD organisation with a strong experience and background in technology transfer and optimisation of advanced PV technologies (IREC) and a leader constrution company (ACCIONA) which is the main costumer segment. The Project concept relies on the solar window patented technology developed by PHYSEE at TRL6, and on the highly flexible PV technology of SUNPLUGGED, which will be further optimised and customised for Solar-Win application. Solar-Win will overcome a major barrier that presently limits a further deployment of BIPV solutions, which relates to its intrusive character. Moreover, Solar-Win will allow achieving a disruptive advance extending drastically the possibilities for integration of PV solutions to virtually any kind of buildings, just by installing and/or replacing building windows.

    Partners

    Number of partners: 4
    Site numbers:

    PHYSEE GROUP BV

    FUNDACIO INSTITUT DE RECERCA DE L'ENERGIA DE CATALUNYA

    SUNPLUGGED - SOLARE ENERGIESYSTEME GMBH

    ACCIONA CONSTRUCCION SA

    Key Exploitable Results

    • TRL

    • Effective use:
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    • Investment needed:
  • Smart Thermostat Évolution

    Project dates: 01. Dec 2015 - 31. Mar 2016

    Objective

    One of the main European challenges, included in the 2020, 2030 and 2050 objectives and frameworks, is the increase of energy efficiency. Buildings, responsible for 40% of total energy consumption can play a major role. 60% of the energy consumed in households is for space heating. Up to 45% of the total energy spends can be saved by using wisely a thermostat. The use of these systems in households is highly profitable for its occupants, as European families spend 5-7.5% of their incomes in the home energy bill. In this context, the European market of home energy management systems will obtain revenue for 415M€ by 2018 after a CAGR of 16% since 2013. QIVIVO is an SME that commercializes and serves intelligent thermostats in France since 2012, and has obtained 31% average energy savings for its users and a 13% of market share. Now it is developing a more advanced generation: Smarthé, with enhanced capabilities both for hardware and software, which will allow for an improved performance and more energy savings. QIVIVO has also developed formulas to reach the end-users through new business models (B2B). Smarthé is a thermostat for a wide range of heating systems (electric, gas, condensation), offering maximum comfort at minimum energy cost. This is achieved by: 1) Automatic learning of the particular comfort temperature and habits of the user, 2) Precise knowledge of how weather conditions (including wind) affect on the house, as Smarthé is characterizes thermal properties of a facility through multizone sensors (thermostat and pressure), and 3) A cloud-served smart suite to automatically manage home energy and assess in retrofitting operations. Home maintenance companies will distribute Smarthé and use another QIVIVO platform to manage renovation programmes in their users’ houses. The business opportunity of Smarthé has a payback period of 4 years and will become the flagship product of the company that will permit the increase of the company in 15 people.

    Partners

    Number of partners: 1
    Site numbers:

    QIVIVO

    • Project coordinator
    • QIVIVO
    • France
    • Budget: 50, 000

    Key Exploitable Results

    • TRL

    • Effective use:
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  • Intelligent Control of Energy Storage for Smart Buildings and Grids

    Project dates: 01. Mar 2017 - 31. Aug 2018

    Objective

    The ICE project will demonstrate that energy regulation services can be provided to the smart grid in a technically reliable and financially lucrative fashion by utilizing a combination of smart commercial buildings and commercial batteries. The key to out-competing traditional solutions with such a service is the provision of energy storage at low capital and operational costs, which the ICE solution does via a novel hybrid storage concept that mixes the inexpensive virtual storage capacity, but slow response, of smart commercial buildings, with fast, but expensive, electrical battery systems. The ERC project BuildNet has developed advanced algorithms to manage such a hybrid system that drastically reduces the required capex-intensive battery system compared to alternative solutions. ICE will take the first step towards commercialization of this concept via a production-ready demonstration of all components of the solution, and a detailed analysis of the resulting deployment and operational costs.

    Partners

    Number of partners: 1
    Site numbers:

    ECOLE POLYTECHNIQUE FEDERALE DE LAUSANNE

    Key Exploitable Results

    • TRL

    • Effective use:
    • Barriers:
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  • Microbiological conversion of renewable electricity and CO2 to a natural gas quality bio-fuel

    Project dates: 01. Jun 2015 - 31. May 2016

    Objective

    OWS wants to commercialize a biological process that converts CO2 and H2 (after electrolysis of renewable electricity) to CH4 (main component in natural gas). Lab and pilot tests have been and are being conducted and show promising results. A next step in the development is creating a sound business model for further commercialization, and the construction of a first plant at full-scale for further optimization and demonstration purposes to potential clients. As renewable energy sources are gaining more ground in the electricity mix in Europe, imbalance problems on the electricity grid will increase in frequency. The proposed concept offers a solution to this imbalance problem by converting excess electricity via hydrolysis to H2 and using (waste) CO2 to CH4 that can be injected into the gas grid. The advantage of the proposed system is the small scale (< 10 MWe), so the conversion can be done near the production sites. When there is an excess of renewable electricity, fees are paid to the operators of renewable electricity for not producing, thus avoiding grid imbalance. Although this approach is understandable from a balancing perspective, it is contradictory to a sustainable approach and in conflict with the existing renewable energy targets. Therefore, producers of renewable electricity are a first important target group for our technology. CO2-intensive industries are a second important target group. By recycling their waste CO2, they become more sustainable, and it can generate extra revenues from buffering activities. During the feasibility study, OWS wants to elaborate a sound business plan for further development of the technology. It should result in a clear vision on technical, economic and legal issues. The final goal is to build a first full-scale demonstration plant in phase 2, which can serve as a test facility for further optimization (technical/biological), but also as a demonstration plant for potential customers.

    Partners

    Number of partners: 1
    Site numbers:

    ORGANIC WASTE SYSTEMS NV

    Key Exploitable Results

    • TRL

    • Effective use:
    • Barriers:
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