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Energy Communities and other collective solutions
On June 6, Flexiblepower Alliance Network (FAN) and TKI Urban Energy are hosting the second webinar in the 2023 series of the Smart Energy Community: "Energy Communities and other collective solutions" (in Dutch).
Opening and update on the activities of Flexiblepower Alliance Network (FAN) by Adriaan van Eck, chairman of FAN.
Starting an Energy community, but how?
If you want to set up an energy community, where should you start? How do you organise an energy cooperation? Thijs Huls from the energy community Agem, in the Achterhoek, discusses what it takes to start an Energy community in terms of data, agreements and platforms and will explain how you can make an energy community really smart about their energy.
Power pitch: Groendus
Energy communities are not just for consumers, energy cooperations can also benefit businesses and entrepreneurs. René Raaijmakers of Groendus will tell us more about the opportunities for businesses to engage collectively in energy communities.
Power pitch: BAM
Within the innovation project TROEF, BAM is developing an energy-as-service concept. Marco Thijssen of BAM will explain more about the community platform that is part of TROEF and how they use gamification to encourage users to pursue their common goal.
Guide to Smart Energy Systems
Richard de Bruin of Rebel Group presents the Smart Energy Systems Guide, a report the Rebel Group developed on behalf of TKI Urban Energy. Richard will take us through the approach and considerations involved, taking three perspectives: energy hubs, business parks and energy communities.
Question hour: Accelerating the energy transition
As DRIFT, we’re noticing that changemakers in the energy transition are currently facing challenges that we could only dream of years ago – or that kept us up at night. In this question hour, you get to ask transition experts Gijs Diercks and Noortje Flinkenflögel all sorts of questions about the energy transition in general and our course Versnelling van de Energietransitie in particular.
Trade mission sustainable building and energy systems to North Rhine Westphalia (in Dutch)
Biedt jouw bedrijf een innovatieve en duurzame oplossing voor de gebouwde omgeving? En maakt expansie naar Duitsland deel uit van jouw internationale strategie? Maak dan van deze gelegenheid gebruik om meer inzicht te krijgen in de markt, en toekomstige handelspartners te vinden tijdens deze korte inspiratiemissie naar Noordrijn-Westfalen, Duitsland.
Deze Handelsmissie is interessant voor bedrijven die:
- Een innovatieve oplossing bieden voor duurzame gebouwen, stedelijke energiesystemen en/of infrastructuur
- Interesse hebben in, of al actief zijn op, de Duitse markt
- Specifiek verder willen uitbreiden in Noordrijn-Westfalen
Wat kun je verwachten op 8 maart?
Tijdens deze missie krijg je een overzicht van:
- Belangrijke lokale stakeholders en hun rol in de sector
- (Nieuwe) regelgeving omtrent duurzaam bouwen, inclusief financiering
- Tips voor zakendoen in Noordrijn-Westfalen
- Specifieke marktkansen, bijvoorbeeld lopende/toekomstige aanbestedingen, ontwikkelingsprojecten en innovatieprojecten
Daarnaast krijg je inzicht in de huidige stand van zaken in deze regio, door middel van een bezoek aan bouwprojecten in Düsseldorf en Krefeld die hoog scoren op het gebied van duurzaamheid. Tot slot bieden we tijdens deze handelsmissie netwerkmomenten met stakeholders in Noordrijn-Westfalen.
Momenteel wordt gewerkt aan het programma.
Let op: aangezien we op 8 maart vroeg beginnen, dienen deelnemers op 7 maart aan te reizen richting Düsseldorf.
Deze missie wordt georganiseerd door FME in samenwerking met InnovationQuarter, Amsterdam Trade & Innovate, ROM Utrecht Region, en partners in de regio Noordrijn Westfalen.
Road to Decarbonisation: Clean, Smart and Secure Solutions
This final event of the Interreg North-West Europe CleanMobilEnergy (CME) project will be a unique opportunity to understand our road to decarbonisation. Speakers from the CME project and other innovative projects and organisations will share their experiences and learnings regarding realising local energy communities, electric mobility, sustainable heating, energy storage and smart, flexible energy systems (such as V2G) from a range of perspectives including technical, financial, social, governance and legal/policy to paint a holistic picture of the future of the energy system and how we get there.
The 1.5-day conference will feature experiences from the implementation of pilots in Arnhem, Nottingham, Stuttgart and Schwäbisch Gmünd within the CME project as well as real-world implementation learnings from other state-of-the-art projects in the field. In the CME pilots, e-mobility solutions were implemented together with local renewables, storage and an open-source energy management system (the REMove tool) to connect, monitor and optimise the energy flows. By matching local energy needs with local renewables through smart solutions, such a system increases renewable energy's economic value and significantly reduces CO2 emissions. This also contributes to increased energy security and independence of European cities and regions, at a time when the cost of energy has been increasing to record levels throughout Europe.
This event is meant for forward-looking local decision makers (including local and regional governments, community organisations and cooperatives), system integrators, e-mobility providers, renewable energy providers, electricity grid operators and ICT developers, to provide a clear view of how models such as energy communities and energy management tools like ReMove can support organisations, cities and regions in their decarbonisation journeys. The event will be held in English.
Finally, the second day of this event will include a site visit to the CME project’s Arnhem pilot site, where the ReMove tool supports the supply of local renewable energy from a 14MW solar farm to river cruise ships in the maintenance harbour adjacent to the city’s industrial area through a cold ironing (shore-to-ship power) system, as well as other pilots conducted at the IPKW innovative business park such as fuelling of hydrogen vehicles.
Battery on Wheels
Monday, October 31 2022, DeeldeZon and the VER, Vereniging Elektrische Rijders, will jointly organise the 'Battery On Wheels Conference'. A seminar entirely dedicated to V2X: bi-directional charging of electric vehicles.
By charging the battery of an EV with sustainable energy and discharging it to the (local) grid, the electric car becomes an important link in the energy transition. It could also be a promising solution to rising energy costs and grid investments. What are the experiences, best practices, prospects and policies? How do we cleverly respond to this? What will the market look like? And how do we join forces?
You are cordially invited to Battery On Wheels on October 31st!
Wat weet jij over gedecentraliseerde energiesystemen?
Ik ben Kyaw Nyunt Linn, momenteel bezig met mijn masterscriptie in MSc. Urban Management and Development (UMD) aan het Institute for Housing and Urban Development Studies (IHS) van de Erasmus Universiteit Rotterdam.
Het doel van dit onderzoek is om de houding ten opzichte van gedecentraliseerde energiesystemen op gemeenschapsniveau te onderzoeken en te begrijpen hoe prosumerisme en vraagrespons kunnen worden gerealiseerd in de energietransitie van Nederland. De resultaten van dit onderzoek kunnen worden gebruikt om beleidsmakers en lokale energie-initiatieven te begeleiden bij het ontwikkelen van hun gemeenschappen en activiteiten met betrekking tot de transitie van hernieuwbare energie op gemeenschapsniveau.
Voor dit onderzoek ben ik op zoek naar mensen die mijn enquête hierover willen invullen.
Het invullen van de enquête duurt ongeveer 7-10 minuten.
Wij verzekeren dat alle verstrekte informatie vertrouwelijk verwerkt wordt en alleen voor academische doeleinden zal worden gebruikt.
Lezing - De klimaatkloof - 15 september 2022
Hoe kan het dat de plek waar je geboren bent bepaalt hoeveel je lijdt onder klimaatverandering? De gevolgen van klimaatverandering treffen iedereen op een andere manier. De vergroening van Nederland kan bijvoorbeeld zorgen voor vervuiling elders ter wereld. En gezinnen met een hoger inkomen kunnen zich vaak beter beschermen tegen de negatieve effecten van milieuvervuiling, bijvoorbeeld door luchtfilters aan te schaffen. Daphina Misiedjan (universitair docent, jurist en onderzoeker ISS/Erasmus Universiteit Rotterdam) legt in deze lezing uit dat klimaatongelijkheid een wereldwijd probleem is dat op alle niveaus zichtbaar is en wat we kunnen doen om de kloof in te perken.
How do you see your future in The Netherlands - using renewable energy in your households?
I am Kyaw Nyunt Linn, currently working on my masters thesis in MSc. Urban Management and Development (UMD) at the Institute for Housing and Urban Development Studies (IHS) of Erasmus University Rotterdam.
The aim of this survey is to explore the attitudes towards decentralised energy systems at the community level and understand how prosumerism and demand response can be realised in the energy transition of the Netherlands. The results of this research may be used to guide policy makers and local energy initiatives in developing their communities and activities regarding the transition of renewable energy at the community level.
It will take about 7-10 minutes to fill out the survey.
Hyperefficiënt zonnepark dankzij smart grid
In de polder in Schagen werken we in een innovatieve samenwerking aan het zonnepark van de toekomst: De Dijken. Dit park heeft niet alleen de nieuwste PV-panelen, maar ook plek voor mobiele batterijen. Dankzij die batterijen en ons Smart Grid Platform maken we hyperefficiënt gebruik van de beschikbare zonne-energie. In het artikel op onze website lees je meer over deze bijzondere samenwerking en onze ambitieuze toekomstplannen.
Terugkijken SES community digitale sessie congestiemanagement 2.0 en financieringsregeling
Op dinsdag 5 juli, organiseerde de werkgroep slimme energie systemen (SES) van de Provincie Noord-Holland, TenneT en Liander een digitale sessie voor de SES community. Hierin vertelde Liander over congestiemanagement 2.0 en gaf de Provincie inzicht in de aankomende subsidieregeling voor SES projecten.
Updates ontvangen van en/of meedoen aan de community? Mail naar email@example.com
Transities versnellen met slimme investeringen
Samen slimmer investeren: daaraan werken Amsterdam Economic Board en Metropoolregio Amsterdam in de ‘Transitieversneller voor de Metropool Amsterdam’. Met dit inspiratiedocument versnellen zij de transities die nodig zijn voor de slimme, groene en gezonde metropool van morgen.
Er zijn acht investeringsthema’s geselecteerd: gezondheidsbevordering en preventie, waterstof, slimme elektriciteit, circulaire bouw, slimme mobiliteit, veilig data delen, artificial intelligence (AI) en een duurzame digitale infrastructuur. Deze thema’s bouwen voort op de kracht van onze regio en zijn in lijn met de financiële mogelijkheden en doelen vanuit Den Haag en Brussel.
Lees het artikel voor meer informatie.
New e-book: Kennisdossier Zonne-energie
I updated and put together 75 posts and articles about the energy transition in a new e-book (in Dutch) 'Kennisdossier Zonne-energie' (120 pages). If you interested, download it for free with the link below.
The challenges in the circular energy transition
The energy transition is in full swing. Besides manpower, it requires a lot of materials, products and infrastructure. Windmills, solar panels, batteries and water pumps contribute fully to this transition, but are still hardly purchased, produced or reused in a circular manner. With the global economy changing and the shortages of raw materials growing, it’s important to look at the materials we use in the energy transition. How can we limit the negative impact of these materials needed for the energy transition?
It's clear that this question is on the minds of several partners. For example, at the Transition Days 2021, the Province of North Holland suggested that a knowledge agenda should be drawn up. In the meantime, our partners AMS Institute and the City of Amsterdam have started a project aimed at the reuse of solar panels in Amsterdam-Southeast and linked this with social issues. Next to that, the companies Pontiflex and Cenex Netherlands (in collaboration with the University of Applied Sciences) are focusing on the reuse of wind turbine components in new bridge structures and EV batteries.
On March 17, Amsterdam Smart City organized a work session during the Demoday Circular & Energy so our partners could discuss their input and vision on the importance of a circular energy transition. Some think it's important to have an ''integrated approach to circularity and energy'', others seek further ''stimulus that enables circular reuse of materials''. But if we want to scale up the energy transition circularly, what obstacles and opportunities do we see together? The challenges and obstacles are mapped for the different physical products via the digital tool Miro. Check out the English version of the Miro board here.
The key challenges raised by the participants:
1. Not all procurement procedures allow for circular material use or are limited to steel and concrete. Or requirements and criteria do not match.
2. Local and regional logistics in relation to transport and labor costs.
3. The business case: often a low financial return and therefore less attractive to the market. Practice shows that to be able to experiment, subsidy or other funding is needed.
4. Laws, regulations and certification of circular products stand in the way. Often the same norms and standards must be applied as for new products.
5. Education to encourage a new generation of students to work more with biobased and circular materials in projects
Now that the obstacles are visible, the challenge is to find a common approach. Through a follow-up session, Amsterdam Smart City will invite the partners again to think about the next steps. In the end we need each other to take the circular energy transition one step further.
If you have any thoughts on this topic or have a related question for us, please let us know in the comments or send an email to firstname.lastname@example.org.
Smart grids: where social and digital innovation meet
The 20th episode of the Better Cities - The contribution of digital technology-series is about electrification, as part of climate adaptation. Based on this theme, both the role of digital technology and the relationship between digital and social innovation will be illustrated.
The Dutch government has dug deep into its pockets to get citizens and companies to cover their roofs with solar panels and to encourage the construction of solar meadows. Favorable tax facilities have been created and a generous so-called ‘salderingsregeling’ has been set up, and with success.
Solar energy and grid overload
Most citizens are very satisfied with solar panels and their impact on the energy bill. So far, no audit office has checked what the government pays for a kilowatt hour of electricity that citizens produce on their roofs. This includes the costs of the aforementioned (tax) facilities and subsidies, as well as the billions in investments in grid reinforcement resulting from the large-scale (re)delivery to the grid of decentral generated energy. In fact, when there is more supply than demand for electricity on the grid, the wholesale price of electricity is negative. In that case, thanks to the ‘salderingsregeling’, the electricity company pays back the full amount and also has to pay(!) companies that buy electricity at that time!
And now? Now the government suffers the consequences and is limiting the growth in the number of solar panels. Many requests for the large-scale generation of solar energy are waiting for a license because the electricity grid in large parts of the Netherlands is overloaded.
There are three ways to solve this problem. The first is to increase the capacity of the high-voltage grid. The second is large-scale storage of electricity, both for the short and the long term. The third is network management. The least elegant solution here is curtailment which means that the capacity of all solar meadows and wind farms is only used for 70%. A better alternative is the construction of smart grids; this is what this article is about. Smart grids have more to do with digitization than with extra cables. *A smart grid is an energy system in which PV panels, electric cars, heat pumps, household appliances, large but also small-scale storage systems and substations are intelligently connected.*However, more attention to energy storage is desperately needed too and high-voltage grid reinforcement will also be inevitable locally.
From centralized to decentralized electricity supply
Electricity infrastructure around the world is designed for centralized electricity generation, characterized by one-way traffic from producer to consumer. Now that many consumers have also become producers ('prosumers') and solar meadows and wind farms are being developed in many places in addition to the usual power plants, the network structure of the future must be decentralized. It will consist of two or three levels. Together, these will ensure a stable system in which much more electricity is used than today. This new structure is at the forefront of development. In 2016, approximately $47 billion was spent worldwide on infrastructure and software to make the electricity system more flexible, integrate renewable energy and better serve customers. The book Promoting Digital Innovations to Advance Clean Energy System (2018) is an excellent overview of these developments. This book can here be downloaded for free.
Most prosumers supply an average of 65% of the generated electricity back to the main grid. Own storage capacity is part of the solution and creates a mini grid that significantly reduces the need to supply back. Otherwise, there are times when the main grid benefits from supplying back locally generated power. Therefore, the next step is for main and mini grids to communicate with each other. In this case we speak of a smart grid: The management of energy production in large-scale power stations (including wind and solar parks) will then take place in conjunction with the regulation of the inflow and outflow of electricity from the main grid to the mini grids. This may also include signals to households to charge or discharge batteries, turn on the boiler, postpone charging the car or stop the production of energy. An automated monitoring and control system is a necessary enabler here.
The exchange of data between mini grids and the main grid has many privacy aspects, especially if the grid operator can influence what goes on 'behind the meter'. An intermediate layer between main and mini grids offers a solution. We then speak of a microgrid. This is a kind of switch between the main grid and the micro grid, that enables the micro grid even to function autonomously in the event of a failure of the main grid.
A microgrid contains three elements:
1. Installation(s) for local energy production for more than one user (usually a neighborhood): solar panels, wind turbines, cogeneration, heat pump(s), biomass power station, hydropower turbine and possibly an emergency production system (generator).
2. A storage system: home and neighborhood batteries and in the future also supercapacitors and chemical latent heat storage.
3. A digital management system to guarantee the balance between the production of and the demand for electricity, to determine how much energy is taken from or returned to the main grid and which calculates the costs and benefits per household.
In a micro grid, households can exchange their surpluses and shortages of electricity without the direct intervention of the grid operator or the electricity producers. These are solely related to the surpluses and deficits of the entire microgrid, eliminating the need to interfere in the mini grids of individual households. Thanks to the real-time monitoring of electricity production and consumption, the price of electricity can be determined minute by minute. For example, the households that are part of the microgrid can agree to purchase as much electricity as possible when the price is low. At such moments, home batteries, electric cars, any neighborhood battery and boilers and hot water barrels will be charged and heated. This can be done fully automated. For example, the Powermatcher, an open-source application developed by TNO, which now employs 1000 people in the Netherlands. This video illustrates how a microgrid works.
A microgrid gains extra value if the users form an energy cooperative. Here it is possible to decide about the algorithms that regulate the circulation of the current in the microgrid. A cooperative can also take care of the management and maintenance of the solar panels of other collective facilities such as a neighborhood battery, local energy sources (wind or solar park or geothermal heat). The cooperative is also a good means of negotiating with the network operator and the energy company.
The virtual power plant
By linking heat pump technology, energy generation and energy storage at the district level, a significant step can be made with the energy transition. Here are some examples.
The Amsterdam virtual power plant
An almost classic example of a microgrid is the Amsterdam virtual power plant. Here, 50 households produce electricity with solar panels, store it in-house and trade it according to availability when the price on the energy market is most favorable.
Future Living Berlin
This is a nice small-scale practical example developed by Panasonic. Future Living Berlin consists of a neighborhood with apartment buildings for a total of 90 households. The residential buildings are equipped with 600 solar panels that, together with a collective battery system, provide a constant flow of sustainable energy. Among others, to power the seventeen central air/water heat pumps, of which two to five per residential building are installed in a cascade and provide heating and hot tap water. The shared cars and communal washing machines are good for the environment, and they also promote neighborly contact. The Internet of Things also plays a role in controlling the heat pumps. Installers maintain remote access to these systems via a cloud platform.
Tesla's Virtual Power Plant
Tesla has built a virtual power plant in Australia for 50,000 households. Every household has solar panels, with a capacity of 5 kilowatts and a Tesla Powerwall battery of 13.5 kilowatt-hours. As a result, the power station has a capacity of 250 megawatts and a storage capacity of 675 megawatt-hours. Here too, every household charges the battery and possibly the car with self-generated energy and with cheap energy if the supply is large, and they supply the energy they have left to the electricity companies at the market price. In this way the participants save 20% of the annual energy costs.
The ultimate step: autarky
Companies that want to use solar panels and supply the surplus of energy back to the grid are also increasingly encountering the capacity limitations of the main grid. The result is that an increasing number of businesses take power supply into their own hands and even completely refraining from being connected to the grid. Commercial solutions for local virtual power grids are now available, for which companies such as Alfen and Joulz are involved. One of the options is Energy-as-a-service, where the business customer does not invest in an installation but pay a fixed amount per month.
The use of blockchain
Blockchain enables exchanging surplus energy between prosumers without human intervention. Brooklyn Microgrid is a 'benefit corporation', to which every resident who has solar panels can connect and buy energy directly from or sell energy to another user (P2P), without the intervention of the electricity company. Blockchain provides a secure, transparent, and decentralized ledger of all energy production and consumption data and transactions based on 'smart contracts'. These are self-executing programs that automate the exchange of value (here, the amount of electricity) on bilaterally agreed terms. Home and neighborhood batteries, individual and collective heat pumps and charging stations for cars can also be connected to this system.
A similar pilot with blockchain is taking place in the southern German town of Wilpoldsried. Project partners Siemens, grid operator AllgäuNetz, Kempten University of Applied Sciences and the Fraunhofer Institute for Applied Information Technology (FIT) have jointly developed the platform and an app, considering the given load capacity of the grid.
Digital twins: need for oversight
Smart grids, ranging from local mini and micro grids to regional applications, are a substantial alternative to grid reinforcement. At the same time, they create new electricity flows, especially where there is a direct exchange between smart grids and the main grid. That is why there is a growing need to map these flows and regulate them where necessary. Digital twins can be helpful here.
Delft University of Technology has developed a small digital twin for a quarter of the Dutch high-voltage grid. This will gradually be expanded to encompass the entire network. To this end, the existing high-voltage hall of TU Delft will be converted into an Electrical Sustainable Power Lab, which will mirror the electricity network, including high-voltage pylons, sources of wind and solar energy, energy storage and distribution networks. This allows, for example, to simulate the effect of linking a new wind farm. As a result, it provides an overview of all bottlenecks and thus lays the foundation for better network management or the choice for grid reinforcement.
But there are also many promising developments at the local level. For that we must be in the US for the time being. The Cityzenith company, together with Arizona State University, has developed the SmartWorldOS digital twin and is making it available to Phoenix, Las Vegas and New York. Each of these cities is building a digital twin of a part of the center. The twins comprise all the buildings, transportation systems and infrastructure of the affected areas and are powered by sensors sent over a 5G network. They aggregate 3D (space) and 4D (time) data about the actual energy use and visualize and analyze it. Subsequently, the impact of other forms of lighting, heating, but also electricity generation with solar panels on the roof, on the facades and in the windows can be simulated and measured and a decision can be made about their implementation.
I have compiled a dossier on many aspects of the use of solar energy. This dossier deepens this article in several respects. Innovations in solar panels, the use of window glass to generate energy, the growth of solar energy in the Netherlands and the storage of electricity are discussed. Those who are interested can find this file by following the link below.
Pitching Event Sustainable Building and Energy Systems in USA
Is your company active in sustainable building & energy systems market? Are you curious to learn how well your solution fits in Boston or New York City? Then join this pitch event on the 23rd of March. During the event you will pitch your solution to an American expert panel, get feedback on your product-market fit and meet some key stakeholders.
Apart from giving you the opportunity to pitch, this event prepares you for (potential) participation in the mission to New York city and Boston in May 2022. Are you already sure you want to join the trade mission? During your registration for the pitch event you can pre-register to express your interest! Do you first want to get feedback during the pitch event before deciding on joining the mission? No problem, we appreciate a well-considered choice!
Sign up now if you are interested in taking your product/service to the Boston/New York market!
Date: 23 March 2022
Time: 14:00-15:30 (CET)
CleanMobilEnergy Digital Seminar Series: The iEMS
Through a series of digital seminars, CleanMobilEnergy shares its lessons learnt to cities & regions.
About this event
The second event in the CleanMobilEnergy Digital Seminar series shall provide an in-depth presentation of the interoperable Energy Management System and how it can be applied in cities & regions. The iEMShas beendeveloped and tested in various City Pilot environments (Arnhem, Nottingham, Schwäbisch Gmünd and Stuttgart) through the Interreg North-West Europe (NWE) CleanMobilEnergy project.
CleanMobilEnergy's interoperable Energy Management System will increase the economic value of renewable energy (RES) and significantly reduce carbon emissions. Through the project's interoperable Energy Management System, electricity from the grid will only be required when prices are low or renewable energy sources are not available – and the iEMS monitors and optimises the system 24 hours a day, 7 days a week.
Learn more about how it can do so for your city or region in this next event in our digital webinar series.
10:00 - 10:25 Presentation on CleanMobilEnergy's interoperable energy management system – and how it can be valuable in your city/region
10:25 - 10:45 Moderated Q&A session
Speaker(s): Pierre Kil, Open Remote
Event Moderator: Chris Ashe, European Institute for Innovation - Technology e.V. (EIfI-Tech)
AMS Urban Living Lab Winter School
AMS Institute is hosting the fourth online edition of the Urban Living Lab Winter School! A fun and intense training week with national and international city makers, urban change-makers, nosy researchers, experimental explorers, and hopefully you!
In this week, Urban Professionals and Researchers will explore the Urban Living Lab Methodology by working in mixed teams. Along with real-life cases, the methodology will unfold step by step.
Are you looking for some in-depth training for urban experimentation in multi-stakeholder surroundings? Please register for our Winter School.
Spots are limited, max 20 persons, so register as soon as possible via our AMS website.
Cases we will dive into of this edition:
- Circular Solar Panels fighting for Energy Poverty, Amsterdam Zuidoost
together with Zonnext
-Local Inclusive Future Energysystem (LIFE), Amsterdam Zuidoost
Date: March 7-11, 2022
Time: Full time, 9 AM-5 PM CET
Where: Online (zoom)
Participants: Researchers, urban professionals from the public and private sector with a minimum of 5 years experience. (15 - 20 participants)
AMS Partners or teams over 3 persons, please contact Femke Haccou
Smart Energy Systems: een integrale en schaalbare weg naar duurzame bedrijventerreinen
Door de bedrijven op bedrijventerreinen samen te laten werken aan integrale verduurzaming kan er op grote schaal duurzame energie opgewekt worden en CO2-uitstoot voorkomen worden. Samen met Greenchoice werken we aan een slim nieuw product: Smart Energy Systems.
CO2-uitstoot, onbenutte daken en netcongestie
Bedrijventerreinen zijn grootverbruikers van elektriciteit en bieden met hun grote dakoppervlakten ongekende mogelijkheden voor duurzame energieopwek. Toch wordt er op dit moment nog lang niet maximaal ingezet op de verduurzaming van deze gebieden. En als het al gebeurt, wordt kennis en kunde niet gedeeld, en worden oplossingen niet integraal op het hele terrein uitgevoerd. In plaats van samenwerken wordt er ingezet op de verduurzaming van één pand zonder te kijken naar de mogelijkheden om samen te verduurzamen, waar dan ook het teveel aan opgewekte energie teruggeleverd wordt aan het energienet. Dat verergert de al bestaande problemen met netcongestie.
Smart Energy Systems
In Smart Energy Systems hebben deelnemende bedrijven de keuze uit een ‘menukaart’ aan maatregelen. Daarop staan opties variërend van het plaatsen van zonnepanelen tot inzicht in verbruik tot het timen van je verbruik met je eigen opwek. Door die integrale aanpak en omdat meerdere bedrijven op het terrein tegelijkertijd verduurzamen kan er meer en sneller worden verduurzaamd.
Plug and play
Vanaf eind oktober begint de pilot bij drie bedrijventerreinen. De verwachtingen zijn hoog. Niet alleen voor de deelnemende bedrijventerreinen, maar ook voor toekomstige deelnemers. Door de ontwikkelingen op de markt goed in de gaten te houden en een vinger aan de pols te houden bij de pilotpartijen werken we aan de uitbreiding van de menukaart met nog meer duurzame en rendabele maatregelen, een gepersonaliseerde roadmap per terrein en een kopieerbare standaard voor nog meer impact.
We avoided 2.071 tonnes of CO2 emission in 2020!
We avoided 2.071 tonnes of CO2 emission in 2020. The amount equals to 207 people’s yearly CO2 emissions. Are you wondering how we did it? Read our Impact Report!
CleanMobilEnergy Digital Seminar Series: An Introduction to CME
The first event in the CleanMobilEnergy Digital Seminar series shall provide a general overview of the Interreg North-West Europe (NWE) CleanMobilEnergy project, through which an interoperable Energy Management System (iEMS) is being developed and implemented to optimise energy production and usage, thus dramatically reducing carbon emissions.
11:05 General overview of the CleanMobilEnergy project
11:30 Moderated Q & A session
11:55 Closing remarks
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