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Households’ potential to contribute to frequency regulation via V2G

V2G frequency regulation in households
Person who is plugging in a charger to a car

Sweden's electric car fleet, largely owned by single-family households, has potential to contribute to stabilising the electricity grid through frequency regulation. This project explores driving forces and conditions for single-family households to participate in frequency regulation through V2G and calculates the potential and its economic value.

Project manager, participant
Active
Electromobility Energy
3 years
Division: Do not use - Division Built Environment

Summary

Electric cars are already being used to stabilise the electricity grid, primarily by varying the charging power. Enabling the return of electricity to the grid, known as Vehicle-to-Grid (V2G), creates further opportunities to balance the grid. However, the potential for frequency regulation from the electric cars of single-family households depends on the owners' acceptance of using the batteries for frequency regulation and their willingness to plug in the chargers. Furthermore, a significant part of the cars and the charging infrastructure need to support V2G application.

To integrate users' willingness and ability to contribute to V2G in the evaluation of the potential for frequency regulation, an interdisciplinary approach is required that considers technical and economic aspects as well as users' conditions, behaviours, and motivations. Therefore, the project will conduct user studies to investigate the motivations and perceived conditions for single-family households to contribute to frequency regulation through V2G. Based on the user studies, we will quantify the potential for electric cars to support the grid with frequency regulation and quantify the economic value for households depending on plug-in behaviour and charging strategies. The potential and value of frequency regulation will then be placed in a broader context to see how households' electric cars can contribute to the grid in the long term.

Project goals

  • Increased knowledge of the motivations and perceived conditions of single-family households to contribute to frequency regulation through V2G technology at home, in relation to other services where the battery creates benefits for the household, the local grid, or the energy system at large.
  • Recommendations for the development of frequency regulation services and incentives aimed at single-family households with electric car charging, so that the services can be designed considering households' conditions, expectations, and motivations.
  • Quantification of how individual households' practical ability to contribute power and energy to frequency regulation through V2G depends on their plug-in behavior and charging strategy.
  • Recommendations for the development of technical standards for V2G to improve the ability of electric cars to deliver frequency regulation.
  • Increased knowledge of how the economic value from frequency regulation through V2G for individual households varies depending on connection behavior and charging strategy.
  • Increased knowledge of how the aggregate potential and economic value for a fleet of electric cars to contribute to frequency regulation through V2G depends on plug-in behaviour, charging strategy, and response time outside the charging session.
  • Increased knowledge of system effects and potential conflicts and synergies between frequency regulation and other services where V2G can create benefits for households, the local grid, and the energy system at large.

Lars-Henrik Björnsson

Forskare
+46 10 516 69 64 Read more about Lars-Henrik

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Markus Lindahl

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Funders without URL: The Swedish Energy Agency through the research programme "Framtidens elsystem" Project end date: Batteries Sekundär områdes navigation:
Electromobility
System innovation
Digital infrastructure
Service innovation

Federated Learning & Edge Processing for Safe and Efficient Operation

FREEPORT

FREEPORT-projektet syftar till att stödja transformation av elektromobilitet genom att angripa tre viktiga utmaningar som operatörer av tunga fordon står inför idag: Effektivitet, säkerhet och drifttid. Detta mål kan uppnås genom att utföra beräkningar nära datakällan istället för en central plats.

Deltagare
Completed
Artificiell intelligens
2 år
6 000 000 kr
Division: Division Digitala system och samhällsomställning
Image: Gemini

Bakgrund

Metoderna för insamling och bearbetning av data inom mobilitetssektorn har varit relativt oförändrade under de senaste två decennierna. Men nya utmaningar, som exempelvis elektromobilitet, kräver ett nytt tillvägagångssätt för att bygga dessa system med ökad flexibilitet i lagring och datahantering. Så kallad edge processing erbjuder potentialen för en ny dataloggningsinfrastruktur genom att minska överföringskostnaderna och sänka analysfördröjningen, vilket gynnar fordonstillverkare, vagnparksägare och förare.

Syfte och omfattning

FREEPORT-projektet syftar till att stödja transformation av elektromobilitet genom att ta itu med tre viktiga utmaningar som operatörer av tunga fordon står inför: effektivitet, säkerhet och drifttid.

Affärsvärdet och användningsfallen omfattar övervakning av elektriska komponenter som batterier och motorer, utveckling av grunder för användning av tredjepartstjänster i edge-enheter, förutsägelser om energiförbrukning för att optimera laddning och förbättrad funktionell säkerhet genom kontinuerlig övervakning för att varna operatörerna vid behov. Vi förväntar oss att demonstrera insamling och bearbetning av spetsdata för minst 20 fordon, med målet att ansluta 50 tunga elektriska lastbilar till projektets slut.

Introduktions video till FREEPORT projekt

Planerat upplägg och genomförande

FREEPORT kommer att utveckla banbrytande dataanalysfunktioner på edge-komponenter: nya algoritmer för detektering av anomalier i realtid från fordon, ett mångsidigt ramverk för händelsebaserad datainsamling, en cybersäkerhetsmedveten arkitektur för säkerhetsvarningar i realtid, och jämförande utvärdering av state-of-the-art federerade inlärningsmetoder. Potentialen med edge computing och maskin-inlärning kommer att visas upp med hjälp av AI Sweden Edge Learning Lab för en bredare publik.

För att dela kunskap angående utveckling och resultat, anordnade FREEPORT ett antal workshoppar och event i flera svenska städer.

5 mars 2025 - Workshop i Göteborg (Lindholmen)

AI Sweden, Högskolan i Halmstad och RISE bjöd in till en workshop med syfte att presentera projektets resultat rörande elektromobilitetens omvandling och utmaningarna som de tunga fordonsoperatörerna möter.

Workshopen fokuserade på tekniska och praktiska utmaningar för edge processering inom fordonsindustrin. Intressanta sessioner inkluderade demonstrationer av bland annat syntetisk datagenerering, anomalidetektering med grafiska neurala nätverk och federerad feldetektering. Deltagarna fick även insikter om dataströmbearbetning med SA Engine och kantprocessering för fordonssystem på en Volvo testlastbil, följt av djupgående diskussioner. Målet var att på ett tillgängligt sätt presentera fynden för relevanta svenska intressenter inom sektorer som fordon, hälsovård och rymd. Evenemanget riktade sig till forskare, ingenjörer och yrkesverksamma inom fordons- och edgeteknik.

Deltagare i FREEPORT Workshop som anordnades i Göteborg den 5 mars 2025
Image: Anass Sedrati

3 juni 2025 - Workshop i Boliden

Syftet med demonstrationen på Boliden var att illustrera den praktiska tillämpningen av Industri 4.0-koncept i en verklig industriell miljö. Demonstrationen belyste hur flera tjänster och dataströmmar kunde kopplas samman för att möjliggöra mer välgrundade beslutsfattande och drifts effektivitet. Ett centralt fokus låg på att överbrygga edge- och molnsystem för att ge förbättrade insikter i produktionsprocesser.

Implementeringen inkluderade edge-analys integrerad i ett produktions fordon, vilket visar dess förmåga att stödja personliga tjänster som övervakning och förutsägelse av laddningstillstånd (SOC), uppskattning av energiförbrukning baserat på specifika fordonsanvändningsmönster och detektion av avvikelser i säkerhetskritiska system.

Denna omfattande uppsättning exemplifierade hur avancerade digitala lösningar kan driva innovation och robusthet i industriella verksamheter.

Deltagare i FREEPORT Workshop som anordnades i Boliden den 3 juni 2025

18 juni 2025 - Workshop i Halmstad (Socialt ansvarstagande och pålitlig AI-dag)

Socialt ansvarstagande och pålitlig AI-dag (som hölls i samband med Swedish AI Society (SAIS) workshop 2025 i Halmstad) tog upp de kritiska utmaningarna kring utveckling och implementering av AI på ett ansvarsfullt sätt. Evenemanget samlade experter från akademin, industrin och juridiken för att utforska de senaste framstegen och diskutera frågor inom pålitlig AI.

Workshopen innehöll huvudpresentationer från experter inom området, inklusive Rafia Inam (Ericsson) och Kristina Knaving (RISE). Diskussionerna omfattade både "högrisk"- och "begränsad risk"-AI-perspektiv, och fördjupade sig i nya initiativ på EU-nivå, inklusive AI förordningen.

En central del av evenemanget var paneldiskussionen om AI-regleringens inverkan på industri och samhälle, där experter inom ämnet behandlade viktiga frågor om AI förordningens effekt på innovation, globala regulatoriska interaktioner, utvecklingen av AI-styrning och den akademiska världens roll i att främja pålitlig AI.

Evenemanget inkluderade även en postersession som visade upp den senaste forskningen inom området samt en breakout-session om tre huvudämnen (hälsa, industri, juridik).

Deltagare i FREEPORT Workshop som anordnades i Halmstad den 18 juni 2025
Image: Anass Sedrati

Sepideh Pashami

Enhetschef
+46 10 228 40 73 Read more about Sepideh
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Project end date: Elektromobilitet Sekundär områdes navigation:
Artificiell intelligens
Data Science
Energilagring
Digital infrastruktur

OKQ8 Welcomes Requirements for Charging Stations

Charging station verification

Are charging stations delivering the right amount of energy? OKQ8 partnered with RISE to verify their charging stations in a unique project.

As a consumer, it is virtually impossible to detect whether a charging station is delivering too much or too little energy. Are you overpaying? Or is the charging station operator losing money on your charging session? For gasoline and diesel pumps, there are legal requirements for regular inspections. An independent entity verifies that the pump delivers the correct amount of fuel.

"Despite the rapid expansion of charging infrastructure, no such requirements exist for charging stations. This means that charging stations can be installed and used for years without any verification that they actually deliver the correct amount of energy. That poses a potential risk to both consumer protection and personal safety," says Magnus Nilsson, unit manager in inspection and calibration at RISE.

Partnered with RISE

OKQ8 is one company taking this issue seriously. Despite the absence of mandatory inspections, they proactively partnered with RISE last year to verify around a hundred of their charging stations.

“This is the first large-scale field inspection of charging stations in Sweden,” says Magnus Nilsson.

Up to 400 kW

During the inspection, RISE engineers compare the amount of energy the charging station reports it has delivered with the actual amount of energy supplied. The measuring equipment, calibrated at the National Laboratory for Power and Energy at RISE, can currently handle charging stations with power outputs of up to 400 kW.

“We’re proud to be part of driving this development forward. Our fuel pumps for liquid fuels are already subject to regular inspections, so for us, ensuring the same level of quality for charging stations is a natural step,” says Christer Karlsson, Project Manager at OKQ8.

We want well-defined regulations that apply to everyone in the market, making the system both simpler and fairer.

Christer Karlsson, Project Manager at OKQ8

Some variations

As expected, the inspections revealed some variations — some charging stations delivered slightly more energy than expected, while others delivered slightly less. However, the deviations were small.

“It was reassuring to see such positive results and to know that customers are getting what they pay for. Most importantly, there were no significant discrepancies. These inspections are crucial for us — without them, we would be operating in uncertainty,” says Christer Karlsson.

Small deviations are expected. All measurements come with inherent uncertainties, and regulations—such as those for gasoline and diesel pumps—specify tolerances that define an acceptable range of variation.

"It would be interesting to conduct additional measurements in winter conditions to study how very low temperatures affect the charging process. Our charging stations are also relatively new — the oldest high-power chargers are about three years old. In the future, it would be valuable to see how aging affects them, as all measuring instruments experience slight drifts over time. However, at this stage, we are not taking any immediate action based on these findings; instead, we are awaiting potential regulatory requirements for inspections," says Christer Karlsson.

Welcomes regulations

Despite strong public support in Sweden for mandatory inspections of charging stations, such requirements have yet to be introduced. While new regulations may bring additional costs, Christer Karlsson and OKQ8 welcome clear and standardized rules.

"We want well-defined regulations that apply to everyone in the market, making the system both simpler and fairer. It is important that the regulations are stable and predictable, without frequent changes over time. We are used to regulations in the liquid fuel sector, so this is nothing new to us. Of course, there will be some costs involved, both for adapting equipment and for the inspections themselves, but it will be the same for everyone, ensuring fairness," says Christer Karlsson.

He sees independent inspections as a major advantage.

"Having an independent entity like RISE conduct inspections is crucial for building trust with our customers. They recognize the inspection stickers on fuel pumps as a mark of quality, and the same principle applies here. It reassures them that we are delivering exactly what they expect," he says.

Continues expanding

While awaiting official regulations, OKQ8 continues to expand its charging network.

“At OKQ8, our goal is to become climate-neutral while supporting our customers in their own transition. In 2024, we opened more than 120 new charging stations, and our expansion will continue,” he says, adding:

“If we want electrification to progress, we need more charging stations—it’s as simple as that.”

 

Contact Christer Karlsson

Phone: +46 702-68 01 82

E-mail: christer.karlsson@okq8.se

Magnus Nilsson

Enhetschef
+46 10 516 61 27 Read more about Magnus
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Last published: Electromobility Sekundär områdes navigation:
Metrology
Energy and electrification
Risk and security

Aluminum in Lightweight PEMFCs with High-temperature (ALPH)

ALPH

In ALPH, new coating and forming methods are devloped to enable the use of aluminum as bipolar plate material for High Temperature Polymer Electrolyte Membrane Fuel Cells (HT-PEMFCs). The lightweight metal combined with the higher temperatures enable lighter fuel cells with a simple cooling system for use in for example heavy duty trucks.

Coordinator
Active
Energy Mobility Hydrogen
3 years
Division: Division Safety and Transport

Fuel cells are a potential power source to enable the electrification of heavy duty trucks. The majority of all fuel cells are low temperature proton exchange membrane fuel cells (LT-PEMFCs), which use pure hydrogen combined with oxygen from air, at up to 100 °C, to produce electricity 

In the ALPH project, new aluminum based bipolar plates for HT-PEMFCs will be devolped. Through the use of aluminum as bipolar plate material, the weight of the fuel cell can be decreased, thereby increasing the power density. To be able to handle the corrosive environment in the fuel cell, new coating systems will be developed. Also forming and joining of aluminum based bipolar plates will be studied in the ALPH project. Test methods both ex situ and in situ a HT-PEMFC will be developed in the ALPH project.

Anders Lundblad

Forskare
+46 70 591 50 03 Read more about Anders
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7. Affordable and clean energy
9. Industry, innovation and infrastructure
13. Climate action
Project end date: Hydrogen Sekundär områdes navigation:
Electromobility
Mobility
Production and manufacturing
Composites
Corrosion

Hyundai Mobis and RISE in Power Electronics

Project - Mobis X RISE

Hyundai Mobis from South Korea has collaborated over a two-year period on the development of power electronics semiconductors. The collaboration is based at the Electrum Laboratory, part of 'Silicon Carbide Valley'. Mobis has had developers on site in Sweden and worked closely with RISE experts on design and processing.

Hyundai Mobis is one of the world's leading companies in automotive and, like many other players in the segment, is making extensive investments in electrification. Power electronics and powertrains that can handle higher voltages without energy losses is a problem that many industries are struggling with.

Results from the collaboration are *confidential*, but Mobis has released a video about the experience of working in Swedish culture.

The combination of lab resources, expertise, and over thirty years of experience makes the innovation cluster ("Silicon Carbide Valley") around Electrum unique in the world.

We are happy that Mobis chose to work with us in power electronics - it has been a very educational collaboration.

Björn Samel, VP RISE Smart Hardware
Juhwan Lee and Sin-A Kim from South Korea working in the Electrum lab - experiencing the Swedish work- and leisure culture.

Power Electronics
Power electronics is a rapidly advancing field due to the ongoing electrification - all types of energy conversion require electronics and various components such as transistors, rectifiers, inverters, and more.

Research
The research being conducted involves the development of materials, components, and processes.

RISE in various collaborations with South Korea - in sectors as maritime, automotive and semiconductors

RISE has a long history and several ongoing research project together with South Korea in variuous areas sucs assemiconductors and power electronics, automotive and maritime.

In 2024 a top management delegation from RISE visited Korea in order to strengthen future collaborations.
Among the participant entities were:

Maritime Research at RISE: "Korea is the world's leading shipbuilding nation and for us it is great to be able to build on both our research collaborations and our commercial development assignments for our Korean partners. Together we are pushing the boundaries of knowledge. Today's ships are a connected and digitized product of modern society. At the same time, the fundamental question is how we can move goods from global manufacturing companies to consumers and businesses worldwide as energy efficiently as possible. For export-dependent nations like Korea and Sweden, it is imperative that we drive knowledge development in this area forward."

Smart Hardware at RISE: “30 Years of innovation excellence within wide-bandgap semiconductors and power electronics, makes Sweden a very attractive innovation partner to one of the worlds most successful semiconductor nation. And Sweden needs to invest further to keep our cutting-edge competence”, says Björn Samel, Vice President of the Smart Hardware Department at RISE.

Björn Norberg

Affärsutvecklare
+46 10 228 41 21 Read more about Björn
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Björn Samel

Avdelningschef
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Sustainability: 7. Affordable and clean energy Advanced electronics Sekundär områdes navigation:
Electromobility
Production and manufacturing

Battery abuse testing

Name of service (page headline, shown in promos – maximum of 70 characters incl. spaces): Battery abuse testing Lead (include SEO-words and the main benefits for your target groups. Stick to one paragraph, maximum 2-3 sentences):

Do you need comprehensive testing of battery cells, modules and full battery packs under real-time conditions? Welcome to benefit from our new built test lab as well as testing, regulations, and standards expertise.

Purpose/Benefit:

RISE offers a comprehensive portfolio of battery safety and abuse tests, covering individual battery cells, battery modules and complete battery packs. These tests are tailored to a wide range of applications, including electric vehicles, off-road machinery, industrial equipment and stationary energy storage systems for renewable energy.

Our ISO/IEC 17025 accredited test laboratories use modern testing equipment to guarantee precise and reliable measurement data. We test according to many different international regulations and standards such as GB 38031, GTR No 20, UN 38.3, UN ECE R100  and IEC-EN 62133-1 and 2.

Method (what/which methods are used to perform the service):

Abuse testing

We perform overcharge tests up to 1200 V, short circuit etc. As these tests can result in thermal runaway with harmful gases, RISE new-built test lab is equipped to this. 

Delivery (what does the client get after performed service – e.g. a report, certificate etc.):

If you need support in identifying necessary tests and certifications, RISE is here to help. We also offer expert guidance on directives and standards relevant to your products.

Additionally, our customers value our tailored training programs in areas such as environmental durability, product safety, secure control systems, battery safety and more.

Do you need help with the battery regulation?

If you need support in understanding and meeting the battery regulation (previously the battery directive) for you products, we will help you.

 

Contact us for a free consultation and discover how we can help you make your product more reliable.

The projects are coordinated by our experienced project managers, which releases resources at your company.  We will support you over the entire battery development process until certification of your product.

Area: Batteries Contact person (Enter one name per field. Activated personal contact pages will appear automatically):
Michael Rahm, Enhetschef
Alessandro Erfanian, Forsknings- och utvecklingsingenjör
Preparations for abuse testing
Field measurements: No Price type: 1 Division: Division Safety and Transport Preparation: No preparation required Standards:

GB 38031 

GTR No 20

UN 38.3

UN ECE R100 

IEC-EN 62133-1

IEC-EN 62133-2

Certification and marking: Not applicable Type of service: Testing / Analysis / Evaluation Instrument: Not applicable General area: Not applicable Delivery level: Accredited
michael.rahm@ri.se,alessandro.erfanian@ri.se
/en/node/9710
Purpose - Header: Wide range of battery testing Metod - Header: Testing in tought conditions Delivery - Header: We assist you in pre-study services and education More information - Header: Mer information
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form
Batteries Sekundär områdes navigation:
Electromobility
Metrology
Risk and security
Production and manufacturing
Tjänstetyp tagg: Provning

NEXTBAT

NEXTBAT
NEXTBAT

Next generation technologies for battery systems in transport electrification based on novel design approach to increase performance and reduce carbon footprint.

Project Manager RISE
Active
Additive manufacturing Artificial intelligence Batteries Digital infrastructure Digitalisation Product safety
Not applicable
3,5 years
4,9 million Euro
Division: Division Bioeconomy
The NEXTBAT project is at the forefront of innovation, driving forward advancements in battery technology for a more sustainable future. In our latest video, we feature Anwar Ahniyaz a dedicated member of RISE working within Work Package 1 (WP1), who shares valuable insights into their role, achievements, and upcoming milestones in the project.

Green battery systems for transportation

The transportation sector is responsible for 25 % of European greenhouse gas emissions and faces challenges in decarbonisation. Electrification emerges as a potential solution, although current batteries and materials require improvement. The EU-funded NEXTBAT project aims to accelerate safe and sustainable electrification of transport and mobile applications within the EU by delivering next-generation technologies. To achieve this, the project will incorporate battery management systems at the cell and system unit levels to enhance battery life. 

Additionally, innovative electronic sensing and actuating systems will be integrated to further extend battery life, ultimately reducing the carbon footprint of battery systems. NEXTBAT’s main objectives are to establish reliable and innovative battery systems as well as to enhance recyclability and interoperability.

General Consortium Meeting: Advancing Battery Technology in Stockholm 19-20 Juni, 2024.

Anwar Ahniyaz

Senior Forskare
+46 76 864 00 59 Read more about Anwar
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7. Affordable and clean energy
8. Decent work and economic growth
9. Industry, innovation and infrastructure
11. Sustainable cities and communities
12. Responsible consumption and production
13. Climate action
16. Peace, justice and strong institutions
NEXTBAT Project Marks Milestone with First Review Meeting
Projekt logo: NEXTBAT logo Attach document: Project end date: Batteries Sekundär områdes navigation:
Circular transition
Electromobility
Mobility

Calculation of carbon footprint according to EU battery regulation EU 2023/1542

Name of service (page headline, shown in promos – maximum of 70 characters incl. spaces): Carbon footprint according to EU battery regulation Lead (include SEO-words and the main benefits for your target groups. Stick to one paragraph, maximum 2-3 sentences):

RISE offers expertise in carbon footprint calculation according to the EU Battery Regulation 2023/1542.

Purpose/Benefit:

Under the Battery Regulation (Regulation (EU) 2023/1542), there is a requirement that all electric vehicle batteries, rechargeable industrial batteries, and batteries for light transport vehicles placed on the EU market must have a carbon footprint calculated according to the guidelines set by the EU. At RISE, we have many years of expertise in life cycle assessments and carbon footprint calculations for batteries, and we can assist you in calculating the carbon footprint of your battery.

Method (what/which methods are used to perform the service):

In our calculations, we use the guidelines for calculating the carbon footprint of batteries developed by the European Commission in a delegated act (currently a draft). The calculations cover the life cycle stages of raw materials, manufacturing, distribution, as well as end-of-life management and recycling. During the calculations, we collaborate with the client and preferably also with the battery manufacturer, if they are not the same entity. We will need relevant data such as materials used, product composition, manufacturing processes, and battery performance.

Please note that the final calculation rules have not yet been established, but RISE is monitoring the development.

Delivery (what does the client get after performed service – e.g. a report, certificate etc.):

A report that meets the regulation's requirements with a summary of key figures to be used in the carbon footprint declaration.

Delivery time:

As agreed

Area:
Batteries
Life cycle analysis
Contact person (Enter one name per field. Activated personal contact pages will appear automatically):
Kristin Fransson, Forskare
Emanuel Glans, Forskare
Battery pack in vehicle
Field measurements: No Price type: 1 Division: Division Materials and Industry Preparation: Description of preparation Standards:

Regulation (EU) 2023/1542 of the European Parliament and of the Council of 12 July 2023 concerning batteries and waste batteries, amending Directive 2008/98/EC and Regulation (EU) 2019/1020 and repealing Directive 2006/66/EC

Certification and marking: Not applicable Type of service: Not applicable Instrument: Not applicable General area: Not applicable Delivery level: Not applicable
kristin.fransson@ri.se,emanuel.bengtsson@ri.se
/en/node/9710
Purpose - Header: The Battery Regulation requires declaration of carbon footprint Metod - Header: Method Delivery - Header: Delivery More information - Header: More information
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Batteries Sekundär områdes navigation:
Circular transition
Electromobility
Tjänstetyp tagg: Konsultuppdrag

Forced deformation test of batteries

Name of service (page headline, shown in promos – maximum of 70 characters incl. spaces): Forced deformation test of batteries Lead (include SEO-words and the main benefits for your target groups. Stick to one paragraph, maximum 2-3 sentences):

Forced deformation tests of batteries involve exposing the battery to a force that strains the battery for a certain period of time.

Purpose/Benefit:

Press tests are used to mimic situations that batteries may be exposed to in the event of an accident or simulate different situations that the battery may be exposed to during its lifetime. Results and data from tests are also used to verify simulations and calculations.

Press tests differ from free fall and impact tests in that they are a slower process and not a sudden transient event.

Method (what/which methods are used to perform the service):

Forced deformation testing involves testing the mechanical integrity of the battery by loading the battery structure with a force that can be increased until the battery structure fails.

In a forced deformation test, battery modules or battery packs that are normally found in electric vehicles are tested. In our laboratory, we can load battery modules and battery packs with forces of up to 700 kN, equivalent to about 70 tons.

Deformation is evaluated during the test and loading usually lasts until thermal runaway occurs. During the test, the battery's status is measured on structural change at the same time as voltage, how propagation between cells takes place and temperature development is measured. 

During testing, equipment can also be connected to the battery's BMS (battery management system) to evaluate the battery's performance and health status in real time.

Standards that are affected by this type of test are UNECE r100 and GB 38031.

Delivery (what does the client get after performed service – e.g. a report, certificate etc.):

In all of our tests, the customer is present during the test and involved in the set-up and execution. Together with our broad expertise on site, we ensure that the tests are carried out in a safe, sustainable and reliable manner. 

RISE has a broad range of expertise and we are happy to help you in the development and evaluation of your product. In connection with our destructive tests, there are also vibration and climate tests, which also need to be evaluated for the safe use of batteries. 

Area:
Batteries
Testing
Risk and safety
Contact person (Enter one name per field. Activated personal contact pages will appear automatically):
Joel Blom, Forsknings- och utvecklingsingenjör
Anton K Gustafsson, Forsknings- och utvecklingsingenjör
test rig for impact tests
Field measurements: No Price type: 1 Division: Division Safety and Transport Preparation: No preparation required Standards:

Standards that are affected by this type of test are UNECE r100 and GB 38031.

Certification and marking: Not applicable Type of service: Not applicable Instrument: Not applicable General area: Not applicable Delivery level: Non-accredited
joel.blom@ri.se,anton.k.gustafsson@ri.se
/en/node/9710
More information:

There are opportunities to adapt and develop a test according to our customer's wishes. Contact us for feasibility studies, evaluations, research projects or inquiries. 

Purpose - Header: Purpose Metod - Header: Method Delivery - Header: Perform a forced deformation test at RISE More information - Header: Contact us
Application of interest
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Batteries Sekundär områdes navigation:
Electromobility
Metrology
Risk and security
Tjänstetyp tagg: Provning

New solutions for a sustainable automotive industry

Sustainable vehicle interior

Vehicles can be made much more sustainable than they are today. This was concluded by project SVIS, which wrapped up this autumn. Within the project, RISE and partners explored the potential for recycling and reusing vehicle interiors, generating circular solutions that could shape the future of the automotive industry.

Dashboards, car mats, door panels, seats, and front, center and rear pillars all have considerable potential for sustainability improvements. This is evident from the results of project SVIS, which were presented at the project's closing conference in the spring of 2024.

"It’s very exciting that we have results indicating that so many components can indeed be recycled, and that it's possible to reduce production waste to the extent demonstrated by the project," says Karin Lindqvist, researcher at RISE.

SVIS set an ambitious goal to cut the proportion of production waste by at least 50 percent. However, evaluating whether this goal has been met has been challenging, as some of the processes have not yet been implemented in production.

"We've seen promising results indicating that materials from vehicle interiors can be reused in new applications. But it's taking some time because the entire system is not yet fully established," says Sandra Tostar, Technical Leader in Polymer and Biobased Materials at Volvo Cars.

Not what we had expected

One type of component that, if defective or damaged, may need to be scrapped during production is the textile-covered pillars (situated between the passenger windows). The front, center and rear pillars are made of a high-value plastic, making them particularly interesting from a recycling perspective. As SVIS decided to examine them more closely, it resulted in one of the project's most unexpected outcomes.

"A student working on the project demonstrated that it was possible to grind down and recycle the plastic with the textile still attached, resulting in a material with good mechanical properties. This came as a surprise," says Sandra Tostar. 

Karin Lindqvist also found the result surprising:

"This was not what we had anticipated, but through analysis, we were able to identify where the textiles ended up and confirm that the materials could be mixed effectively," she says.

This project has clearly shown us the importance of working with the entire value chain, and ideally across various industries.

One's scrap, another's resource

Although it will take some time before the project’s solutions become industry standard, there is optimism among the participants. New EU legislation aimed at promoting circular solutions in vehicle design is on the horizon, and several other processes are already in progress. National Sweden, supplier of components for the automotive industry, has managed to recycle all production waste for its panels made in Gent. Furthermore, IAC Group is gearing up to produce a door panel made from 50 percent natural fibers, targeting zero percent production waste.

"One of the project's goals was for one company’s scrap to become raw material for another supplier. Scrap, or waste, occurs, for example, in door panel manufacturing. Next year, we will start a new production facility where door panels made from 50 % natural fibres will be produced. The production begins with rectangular sheets from which the door shape is pressed. This results in large amounts of cut waste, approximately 40 % of the panel's weight, says Markus Akervall, Advanced Engineering Manager at IAC Group, and continues:

"Our goal is to eliminate waste by reusing it in various ways. There are several methods to achieve this. For instance, we’ve tried making a plastic granule, a new compound, where the fibre cut waste is incorporated as a component. The waste is mixed with virgin materials, resulting in a fibre-reinforced PP granule. The results show that this granule maintains reasonable quality and can be used in the production of other vehicle components. So, we now have a plan to handle the waste that would otherwise have been incinerated."

Do the components measure up?

Modifying a component’s composition necessitates a range of tests to confirm that the new component meets the specifications. Given that these are vehicle components, safety is a critical consideration. In the previously mentioned pillars, the project experimented with altering the composition by including production waste, which required the new pillars to undergo crash testing.

"One of our engineers performed the tests based on our established standards and testing methods," says Sandra Tostar at Volvo Cars. "We received good results; they passed our tests."

Another conclusion drawn from the project was the importance of "one polymer solutions." Although the pillars’ mix of plastics produced good mechanical properties, it is generally much easier to recycle materials that consist of only one polymer.

"Our conviction that one polymer solutions represent the future has only been strengthened. During the project, we experimented with producing components in the trunk using only one polymer. If polymeric materials are properly managed, traceable, and free from contamination, they can be recycled repeatedly. I anticipate a reduction in material diversity on the polymeric side within the automotive industry moving forward, and I also hope to see increased collaboration across the entire value chain," says Joakim Fritz, Vice President and Business Development Manager at National Sweden. 

Collaboration – key to success

Fostering collaboration between equipment and material suppliers within the automotive industry was one of the project's objectives, and it was highly regarded by the participants. 

"The networking aspect was highly valuable, involving both the customer, Volvo, and the other participating companies. We had firms from various levels – Original Equipment Manufacturer (OEM), system suppliers (tier 1), component suppliers (tier 2), and material suppliers (tier 3) – which created a strong dynamic, enabling us to address issues both broadly and in depth," says Markus Akervall from IAC.

"This project has clearly shown us the importance of working with the entire value chain, and ideally across various industries. At the start, I don’t think we fully understood how to take into account the material’s future use in its next life. However, through the efforts we've made and the partnerships we've built, we now have a new perspective on what’s needed and how we should approach it," says Sandra Tostar and Caroline Möllerström Olsson, working as System Architect for Surface Materials at Volvo Cars.

The road ahead is long but promising

Although the project has ended, the collaboration continues in a new RISE-coordinated project, CIRCUS. This project builds on SVIS but places an even greater focus on circular flows. However, several of the solutions developed within SVIS are already mature for implementation in the industry, so what happens next?

"In research, the time required to implement results can vary. We are already working on life cycle analysis, which was part of the project, and we are also exploring ways to simplify the types of materials used in car mats. Another promising finding concerns the instrument panel carrier. If recycled, it produces a polypropylene (PP) with short glass fibres that could potentially be reused in cars, creating a closed loop. The new legislation proposal includes the instrument panel as a component that should be removed before scrapping a car, which would make the material available for recycling," says Sandra Tostar at Volvo Cars.

"Everyone is now waiting for the new EU legislation, the proposal for a new ELV directive, to be reviewed, which is anticipated to occur next year. The proposal stipulates that new cars must include at least 25 percent recycled plastic, with 6.25 percent sourced from a closed loop system. If the legislation is enacted, it will have a significant impact and greatly enhance the motivation to tackle these issues," says Karin Lindqvist at RISE.

Learn more about the CIRCUS project - Circular use of plastic in the automotive industry.

Results in brief

Seat, upholstery

The upholstery was designed with a one polymer solution, which resulted in four recycling scenarios. Three of them were realised in products: neck pillow, child cushion, and a modular accessory system. 

Dashboard, instrument panel

By removing small particles  (< 1 mm) from the milled carrier, it was possible to reuse the material in other automotive components. An exposed panel can probably be recycled by adding stabilizers. 

Pillars

Polymers that blend well can be recycled together, and even a safety component can hold a certain percentage of recyclate (30 percent).

Door panel

It is possible to produce door panels with 0 percent production waste. The cut waste can be returned to the supplier, or used to prepare injection moulding compounds. 

Car mat

The car mat was designed with a one polymer solution, which resulted in several recycling scenarios. Some were easier to realize, such as washing and shredding, others more advanced, such as depolymerisation. The scenarios are prepared for implementation as soon as the recycling chain is established.

SVIS was a collaboration between RISE, Volvo Cars, Adient, Albis, Autoneum, Borgstena, Dow, Elmo, Frimo, Havd, IAC, MCPP, National Halmstad, National Högsäter, Sporda Nonwoven, Texla, och TMG. The project was funded by FFI - Fordonstrategisk Forskning och Innovation.

Adriana Angelaccio-Osbeck

Projektledare
+46 10 228 42 49 Read more about Adriana
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