Jump directly to content

Meet RISE at SKYDD 2026

Defence Ballistic

The threat landscape is changing faster than regulations can keep pace. New EU cybersecurity requirements, a total defense system under development, and stricter requirements for products designed to protect people and property.

Ultimately, all of this comes down to a question landing on someone’s desk: Does what we do meet the required standards, and can we demonstrate it? We help you answer that question. Welcome to our booth at the SKYDD and the National Defence Expo, October 20–22 at Stockholmsmässan.

Come and visit booth A15:44

With us, you’ll meet specialists in fire safety, physical security, materials testing, and certification. Bring us a specific challenge or simply a question—we’ll listen first and then make recommendations.

We’re happy to help you clarify which requirements, regulations, and standards apply to your particular product or operation, and how testing, certification, and verification can take you all the way to an approved result—and a product that stands stronger against the competition.

We can talk about this

Testing and Verification

Fire testing of materials, structures, vehicles, and vessels. Ballistics, burglary protection, explosions, and mechanical testing. Personal protective equipment, from helmets and respiratory protection to fall protection. We also have secure testing environments where sensitive products can be tested.

Certification and Market Access

CE marking and the path to the EU market. Certification of products, individuals, companies, and management systems, including the standards of the Swedish Theft Prevention Association and the Swedish Fire Protection Association—from fire alarms and gas extinguishing systems to video surveillance and locks.

Research and Expert Support

Total defense, preparedness, and resilience in critical societal operations. Cybersecurity and new EU requirements. Support throughout the entire development journey, from the initial idea to the finished product.

Listen to Ted Strandberg talk about CRA

Our cybersecurity expert, Ted Strandberg, is participating in the seminar “How Does the CRA Affect Providers of Technology Solutions for Physical Security?” alongside speakers from Axis Communications, AddSecure, Nexus, Onemore Secure, and Iqsight.

The EU’s Cyber Resilience Act imposes cybersecurity requirements on products with digital components. What does this mean in practice for connected security technology, and how are industry providers ensuring that their products can withstand future threats?

Wednesday, October 21, 15:40–16:20, Teknikscenen A01:40

SKYDD & the National Defence Expo
20 Oct 2026 - 22 Oct 2026
Stockholmsmässan, Älvsjö, Stockholm

Visit SKYDD 2026 for info

Visit SKYDD 2026 for info
Fair,

Susanna Kindberg

Affärsutvecklare
+46 10 516 55 54 Read more about Susanna
Profile image

Contact Susanna

CAPTCHA

* Mandatory 

By submitting the form, RISE will process your personal data.
Ted Strandberg

Ted Strandberg

Cybersäkerhetsexpert, RISE
Division: Division Safety and Transport Risk and security

Materials characterisation within total defence

Chemical analysis
Vial

Materials and products used within total defence must perform reliably in demanding and unpredictable environments. RISE supports total defence stakeholders with expertise in materials, chemical processes and protective solutions tailored to specific needs.

Equipment, protective systems and critical infrastructure need to withstand chemical and physical exposure, ensure air and water quality, and comply with relevant requirements and standards. At the same time, organisations need to navigate a complex regulatory landscape where the conditions vary depending on area of use, environment and threat landscape.

RISE support total defence stakeholders in making well-informed decisions through analysis, testing and expert support. With broad expertise in materials, chemical processes and protective solutions, we combine accredited analytical methods with tailored approaches adapted to the customer's specific needs. We support organisations that develop and manufacture products, as well as those responsible for setting requirements, procurement, verification and use.

Ensure the right material, the right protection and the right requirements in the right environment

 

Materials in demanding environments

Materials and equipment are exposed to mechanical, physical and chemical stresses. Understanding how materials interact with their environment is essential to ensuring performance, durability and safety.

We offer analyses and evaluations of, among other things:

  • Textiles and wood-based products
  • Plastics and polymer materials
  • Concrete- and cement-based products
  • Batteries
  • Metals and metallic components
  • Materials and protective equipment for demanding and varying environments

We help customers assess performance, identify risks and ensure that products meet relevant requirements.

Air quality and chemical exposure

Processes, materials and operations are both affected by, and can affect, the air environment through emissions of particles, gases and chemical substances. For people, animals and technical equipment, air quality can be crucial for safety and function.

We have expertise in:

  • Sampling of airborne particles and gases
  • Field measurement and sampling in real-world environments
  • Laboratory analyses
  • Evaluation and supporting documentation for requirement-setting and decision-making

Safety and protective performance

Protective equipment, barrier materials and systems for air and water treatment play an important role in society's preparedness and resilience.

We support the development, verification and evaluation of, for example:

  • Personal protective equipment
  • Chemical and biological protective barriers
  • Air treatment systems
  • Water purification and water supply solutions
  • Technical solutions for safety and preparedness

Eva Emanuelsson

Forskare
Read more about Eva

Contact Eva

CAPTCHA

* Mandatory 

By submitting the form, RISE will process your personal data.

Tove Mallin

Enhetschef
Read more about Tove

Contact Tove

CAPTCHA

* Mandatory 

By submitting the form, RISE will process your personal data.
Division: Division Materials and Industry Total defence and crisis preparedness Sekundär områdes navigation: Physical protection and safety

3D-printed spare parts for increased crisis and wartime preparedness

3D printing - resilient power grid

A robust electric power system depends on critical components and spare parts being available when they are needed. In the event of major disruptions, interruptions to international supply chains or, in the worst case, war, access to spare parts can become a decisive factor in how quickly the electricity supply can be restored.

Project management
Active
Energy
Not applicable
9 months
Division: Division Safety and Transport
Image: Energiforsk

About the project

A robust electric power system depends on critical components and spare parts being available when they are needed. In the event of major disruptions, interruptions to international supply chains or, in the worst case, war, access to spare parts can become a decisive factor in how quickly the electricity supply can be restored.

In this project, RISE is investigating how additive manufacturing, often referred to as 3D printing, can be used to strengthen preparedness in the power grid sector. By enabling local and flexible production of spare parts, dependence on global supply chains can be reduced while lead times for critical components can be shortened.

The project focuses on spare parts for high-voltage equipment in the power grid, covering voltage levels between 10 and 130 kV.

Background

Experience from international crises and attacks on energy infrastructure shows that restoration efforts are often limited by access to equipment and spare parts. At the same time, additive manufacturing is developing rapidly and is already used in several industrial sectors to manufacture or repair components at short notice.

Despite this, there is currently a lack of knowledge about which spare parts in the power grid sector are suitable for 3D printing, what requirements need to be met and how such production could be organised in practice during a crisis.

Objectives

The overall objective of the project is to identify opportunities to manufacture critical spare parts for high-voltage equipment in Sweden using 3D printing.

The work will include:

  • identifying the spare parts most relevant for production using additive manufacturing 
  • mapping technical requirements, standards and limitations 
  • assessing which properties may be acceptable for temporary emergency components in a crisis 
  • describing workflows for digitalisation, manufacturing, post-processing and validation 
  • providing a basis for future full-scale testing and demonstration projects 

Implementation

The project combines expertise in power systems, high-voltage technology and additive manufacturing.

The work includes:

  • analysing and prioritising critical spare parts 
  • reviewing existing designs and standards 
  • evaluating suitable materials and manufacturing technologies 
  • studying how spare parts can be digitalised using methods such as 3D scanning 
  • developing processes for rapid spare part production in crisis and wartime situations 

The project will also explore how national additive manufacturing capabilities could complement traditional inventories and established supply chains.

Expected results

The project will deliver a prioritised list of spare parts and components considered most suitable for 3D printing. The results will also include recommendations on requirements, testing and standards, as well as a description of how spare parts could be manufactured in practice under disrupted conditions.

In the longer term, the results could contribute to greater robustness and recovery capacity in the Swedish power system by creating the conditions for national and flexible spare parts supply.

Tommie Lindquist

Forskare
+46 10 516 57 79 Read more about Tommie

Contact Tommie

CAPTCHA

* Mandatory 

By submitting the form, RISE will process your personal data.
7. Affordable and clean energy
9. Industry, innovation and infrastructure
Project end date: Energy transmission Sekundär områdes navigation:
Additive manufacturing
Energy transmission
Total defence and crisis preparedness

When preparedness becomes a competitive issue

Containers outside a warehouse

A new national preparedness standard is designed to help organisations assess their ability to function in the event of a threat of war or during wartime. For businesses, this is not merely a matter of risk management. The ability to manage disruptions may also become a factor in future procurement and partnerships.

The pandemic highlighted just how quickly society’s dependencies can become apparent. When supply chains were disrupted, organisations had to adapt and new partnerships emerged, there was often no shared understanding of what preparedness actually entails – or what capabilities are required to keep operations running when circumstances change.

Sweden’s first contingency standard for the threat of war and war

Since then, the security landscape has changed further. For businesses, public authorities and other organisations, issues relating to resilience, supply chain security and business continuity have evolved from being niche concerns to becoming an integral part of their core operations.

Against this backdrop, Sweden’s first national contingency standard for the threat of war and wartime is now being developed. The aim is to provide organisations with a common framework for assessing and developing their ability to continue operating even under extremely difficult conditions. RISE has been involved in the work to develop the standard.

It’s not just having a plan in a folder. The actual capabilities need to be in place.

“Ultimately, it’s about being able to continue delivering what you’re supposed to deliver, even if the worst were to happen. A standard can help with that,” says Emma Mattisson, who have been involved in the development of the standard.

Sweden already has standards and working methods covering everything from information security to crisis management. However, when the Swedish Standards Institute set up a working group to develop a new contingency planning standard, it became clear that something was missing. The working group comprises representatives from the defence sector, government agencies, the business community and research institutes, amongst others.

“There are many standards that relate to preparedness in various ways. However, the specific aspects of the threat of war and war itself are not covered by the standards currently in place. We saw a clear gap there,” says Emma Mattisson.

The aim is therefore to establish a common language and a shared understanding of what is required for an organisation to continue fulfilling its mission, even under extremely difficult conditions.

Four core competencies

A key part of the standard is four core competencies: 

  • leadership skills,
  • delivery capacity,
  • protective capacity and
  • ability to repair. 

They relate to the organisation’s ability to manage its operations, maintain service delivery, protect people and resources, and restore operations following disruptions.

The more well-organised processes, supply chains and management structures are, the better equipped the organisation is to deal with unexpected events.

“It’s not just about having a plan in a folder. The capabilities actually need to be in place. You need to know what’s critical, what resources are required, and how operations should function if certain parts were to fail,” says Emma Mattisson.

Although the standard is voluntary, there are several reasons why businesses and organisations should start preparing now. One key reason is that resilience is likely to become a more significant factor in procurement and partnerships in the future. Already, stakeholders from sectors such as defence, government agencies and the public sector are involved in the development of the standard.

Several organisations participating in the working group say they envisage using this type of requirement in their procurement processes.

For businesses, this may mean that issues previously regarded as internal contingency matters become part of their business relationships. The ability to maintain operations, manage disruptions and continue to deliver may therefore become a factor taken into account when evaluating suppliers.

Better organisation makes it easier to deal with unexpected events

At the same time, there are other benefits to be gained by tackling these issues head-on.

"The more organised your processes, supply chains and management structures are, the better equipped you are to deal with unexpected events."

The aim is to establish a clear picture of the organisation’s key functions, understand their interdependencies, and identify which resources are critical to maintaining service delivery in the event of disruptions.

As a business, it may be wise to start with your own operations: 

  • Which functions must continue to work no matter what happens?
  • Which dependencies are the most critical?
  • And how would the organisation cope if the external environment suddenly changed?

Terje Andersson

Projektledare
+46 10 228 41 01 Read more about Terje
Profile image

Contact Terje

CAPTCHA

* Mandatory 

By submitting the form, RISE will process your personal data.
Last published: Total defence and crisis preparedness

Independent testing and verification against military requirements

Förberedelse ballistisk provning av hjälm

Developing technical solutions for the defence sector requires access to advanced testing environments and accredited methods, as well as independent verification. Without verification against military requirements, a product will not progress in the procurement process, regardless of how well it is designed. For companies without their own testing capacity, access to the right infrastructure often determines whether a technical solution can be realised.

RISE offers independent testing and verification against military requirements, providing support from early component verification to system-level testing. We verify that technical solutions work and meet the stringent requirements of the military environment. These tests are carried out in one of our 120+ specialised technical infrastructures and test environments. As a government body with no supplier interests, we provide objective documentation that can withstand scrutiny during review, procurement and export.

RISE's services cover the entire spectrum of the Swedish Armed Forces' priority areas. If your technical solution contributes to situational awareness, protection against airborne threats, maritime control or robust logistics, RISE has the testing infrastructure and expertise to verify that it meets military needs and requirements.

  • Improved and sustainable situational awareness – characterisation and verification of sensor systems based on MEMS, fibre optics and electromagnetic technologies; EMC testing for defence electronics; and verification of positioning and navigation solutions.
  • Air and Missile Defence and Drone Protection – Verification of electronics and sensor systems, accredited EMC testing to military standards, environmental and mechanical durability testing, and functional safety and cybersecurity testing for autonomous systems.
  • Testing in the Baltic Sea – Hydrodynamic testing in a ship model flume, cavitation tunnel and wave laboratory at the SSPA Maritime Centre - Corrosion testing in Atlantic seawater - EMC testing and functional safety assessment for marine products
  • Long-range combat: dynamic testing including impact, explosive loads and ballistics; fire testing up to 15 MW; and calibration of dynamic pressure transducers at the national testing facility — one of only two such facilities in the world.
  • Critical infrastructure protection – security testing via Cyber Range; accredited functional safety assessment; and physical protection against explosions, ballistic threats, and intrusion.
  • Robust logistics and sustainable platforms – including climatic and mechanical testing, reliability and service life analysis, composite material characterisation, and corrosion protection – backed by over 50 years of experience.

This is how it works:

1. Get in touch. Briefly describe your technical solution and the military requirement it addresses. We will then identify the relevant test environments and services.

2. Requirements analysis and test plan. We draw up a detailed proposal setting out what is to be tested, the standards against which it is to be tested, and the associated costs.

3. Quotation. You will receive a quotation from RISE for the proposed work.

4. Implementation. We carry out testing and can provide accredited reports that are valid for procurement and export purposes.

How we work with small and medium-sized enterprises

Military certification often involves several types of testing across a range of different areas of expertise. With RISE's comprehensive range of services, you can consolidate multiple testing and verification stages with a single partner, providing you with a single point of contact and coordinated documentation. We can tailor testing programmes to your requirements, standards and schedule, whether you need an individual analysis or a complete verification programme.

Frequently asked questions

What does 'accredited testing and verification against military requirements' mean?

+

How long does it take to validate a technical solution against military requirements at RISE?

+

Can a small business without its own testing infrastructure commission RISE to carry out military-grade verification?

+

What military standards and requirements can RISE verify compliance with?

+

Johan Rosell

Affärsutvecklare
+46 10 228 49 56 Read more about Johan
Profile image

Contact Johan

CAPTCHA

* Mandatory 

By submitting the form, RISE will process your personal data.

Mia Kumm (BR)

Totalförsvarsstrateg
+46 10 516 54 19 Read more about Mia
Profile image

Contact Mia

CAPTCHA

* Mandatory 

By submitting the form, RISE will process your personal data.
Hide menu: Off Contact form:
CAPTCHA
By submitting the form, RISE will process your personal data.
Contact form title: Contact us – we can help you with quotes and testing setups. Contact form description:

Would you like to discuss how technical solutions can be tested and verified to meet military needs and requirements? If so, please fill in the form.

bg_7
Division: Division Safety and Transport Total defence and crisis preparedness

Islanding can strengthen Sweden’s energy security

Energy system model

So-called island mode operation, whereby buildings or entire electricity systems can function independently, is not just a future scenario; the technology is available today. For example, Ludvika municipality secures the electricity supply for its critical infrastructure through green energy production and storage.

The Swedish electricity grid is facing two major challenges. The first is the ever-increasing demand from an industry and transport sector in transition. The second challenge, which is perhaps even more pressing, is the disruption caused by extreme weather, cyberattacks and geopolitical instability. In order to increase its supply capacity and become more resilient, the electricity grid can benefit greatly from island operation.

'In the event of a crisis or war, our electricity grid is likely to be affected. If the grid fails completely, not everyone will be able to receive assistance immediately. Instead, we need solutions to restart critical societal functions,' says Sara Skärhem, a senior project manager specialising in total defence at RISE.

How island operation mode works

Island operation means that a building or electrical system can function independently and be disconnected from the mains electricity supply. An island consists of a means of generating energy (such as hydroelectric power, solar panels or wind power) and a means of storing energy (such as batteries, hydrogen or thermal storage). The control system acts as the brain of the system, disconnecting the island from the grid and initiating island operation in the event of grid disturbances.

‘Given the developments we are seeing in the energy sector and the types of energy that will be available, it is likely that the energy islands of the future will be complex,’ says Jenny Holgersson, a senior project manager and researcher specialising in the city’s energy transition at RISE. She continues:

There are advantages to having a variety of energy generation units that support one another within the system. Furthermore, just like society at large, energy islands are becoming increasingly interconnected. This is an important aspect to investigate going forward, to avoid situations where island operation is disrupted before activation.

RISE is studying the cybersecurity of the energy island in Ludvika

The Krafttanken facility in central Ludvika is a prime example of an island operation. It houses a transformer box the size of a shipping container which is equipped with an energy storage system, an inverter, a transformer and a control system. The energy storage system consists of a battery that is charged using fossil-free energy from solar, wind and hydro sources. In the event of a power cut, the Power Tank will supply the municipality’s critical functions with electricity.

‘When we first got in touch with Ludvika, it was to study the security aspects of the energy storage facility, specifically its cybersecurity. We’ve examined the equipment at both component and system levels to see how these can be managed, says Sara Skärhem, continuing:

We have chosen to study Krafttanken because it is a well-defined and mature case study. However, what we learn about security risks and potential adversaries can be applied to the entire energy system.

Various forms of energy are required in order to supply a local organisation with electricity and other supplies.

Island operations form part of the total defence

Grums Municipality has also made preparations for off-grid operation in the form of a large battery storage facility. This facility is currently used commercially in the electricity grid’s balancing market, whereby the batteries store energy when production is high and prices are low, and supply energy when consumption and prices are high. The plan is for the facility to supply power to municipal safety hubs, such as schools, nurseries and sports halls, in the event of a grid failure. These safety hubs will provide people with the opportunity to keep warm, receive information and cook food. Krafttanken in Ludvika also serves this purpose.

RISE has collaborated with Grums Municipality to examine how their battery storage facility could be adapted for off-grid operation. The project has also explored the possibility of integrating renewable energy sources.

Grums Municipality's plan to use existing battery storage facilities for off-grid power supply is in line with Sweden’s rebuilding of its total defence capabilities and the EU’s requirements for resilience in the energy system. As well as enabling hospitals and other critical societal functions to continue operating in the event of a crisis or war, connected safety hubs can serve as strategic nodes for information sharing.

Our security situation has deteriorated significantly and our power grids are under threat. In order to supply a local organisation with electricity and essential supplies, you need energy in various forms. In that case, it is advantageous to be able to run the energy supply in stand-alone mode,' notes Jenny Holgersson.

Contingency and total defence aspects of the energy system

'There is a great deal of expertise in energy systems at RISE, and it is becoming second nature for us to incorporate contingency planning and total defence aspects into our work with the energy sector. The sector needs to continue improving its preparedness by raising the level of knowledge among all those involved, practising various crisis scenarios, and collaborating with public and private actors. RISE is ready to launch more pilot projects and build on the experiences from Ludvika and Grums,' says Sara Skärhem.

Which areas could use island mode?

In theory, a local electricity system that can operate independently when necessary can be powered by many types of energy source. These include hydroelectric power, battery storage, solar panels and wind power, for example. In practice, facilities that can control and stabilise the electricity grid in real time are best suited to this purpose. Hydropower and batteries are particularly important as they can quickly adjust production or consumption to keep the frequency stable.

Solar and wind power can also be included, but as these are weather-dependent and more difficult to control, they almost always need to be combined with other sources. This means that energy islands are usually built around a combination of several energy sources, rather than a single plant.

Could island mode areas become targets?

In theory, areas using island mode could be targeted by adversaries. However, the whole point is to make the electricity system as a whole less vulnerable by spreading production and storage out rather than relying on a few large hubs, as is the case today. While more smaller, localised systems may be easier to knock out individually, it is harder to knock them all out at once.

Sara Skärhem

Senior Projektledare
+46 10 516 57 55 Read more about Sara
Profile image

Contact Sara

CAPTCHA

* Mandatory 

By submitting the form, RISE will process your personal data.

Jenny Holgersson

Projektledare
+46 70 525 51 72 Read more about Jenny
Profile image

Contact Jenny

CAPTCHA

* Mandatory 

By submitting the form, RISE will process your personal data.
Energy transmission Sekundär områdes navigation:
Energy and electrification
Total defence and crisis preparedness

Increased preparedness for Swedish port regions

Increased preparedness for Swedish port
Port

Swedish ports are operating in an increasingly challenging future landscape. This project examines how ports can address these challenges in relation to the climate crisis and broader societal transformations and suggest mitigation methods.

Deltagare
Active
3år
Division: Division Safety and Transport

Against this background, the project aims to strengthen the preparedness of Swedish port regions for the future in relation to other societal and security-related challenges. This is particularly important given the uncertainties surrounding the magnitude of future climate change and the evolving demands on port operations, such as changing security requirements.

As climate change affects Swedish ports in different ways, ranging from rising sea levels to changing ice seasons, port operations face both operational and strategic challenges. Addressing these challenges requires clear allocation of responsibilities, long-term planning, and collaboration between port authorities, municipalities, and national government actors. By examining how climate adaptation measures can be coordinated among different stakeholders, the project contributes to increased efficiency and knowledge sharing within Swedish port regions.

At the same time, a changing climate creates new opportunities, such as improved conditions for shipping over the seasons. By combining physical measures, nature-based solutions, and organizational development, ports can strengthen their robustness and contribute to a sustainable and resilient transport system.

Enhanced preparedness for climate change and extreme events is therefore expected to contribute to the transport policy objective of a socio-economically efficient and long-term sustainable transport system. The project further disseminates knowledge on climate adaptation methods and demonstrates how collaboration can be used to spread knowledge and create long-term solutions.

Hanna Varvne

Forskare
+46 10 516 69 71 Read more about Hanna
Profile image

Contact Hanna

CAPTCHA

* Mandatory 

By submitting the form, RISE will process your personal data.

Åsa Kärnebro

Innovations- och processledare
+46 10 251 39 66 Read more about Åsa
Profile image

Contact Åsa

CAPTCHA

* Mandatory 

By submitting the form, RISE will process your personal data.
Project end date: Maritime Sekundär områdes navigation: Total defence and crisis preparedness

UN, Manual of Tests and Criteria, section 33.4.6 Test N.4: Test method for self-heating substances

Name of service (page headline, shown in promos – maximum of 70 characters incl. spaces): Dangerous goods testing Test N.4 Lead (include SEO-words and the main benefits for your target groups. Stick to one paragraph, maximum 2-3 sentences):

Testing according to "UN Reccomendations on the transport of dangerous goods, Manual of Tests and Criteria, section 33.4.6 Test N.4: Test method for self-heating substances" evaluates a materials tendency to self-heat. The data is used for determination of safe transportation on road.

Purpose/Benefit:

Dangerous goods are items or substances that can imply a risk for health, safety, property, or the environment. Some items, which may not be harmful by itself, may become a risk when combined with other substances.

Most regulations concerning dangerous goods, such as national regulations, the IMDG Code, IATA etc. are based on the UN Recommendations on the Transport of Dangerous Goods Model Regulations. The guidance document is developed by the United Nations to uniform national and international regulations. 

Dangerous goods are divided into nine different classes, grouped by their physical and chemical properties. Through testing a packaging group is assigned, in accordance with the degree of danger they present.

CLASS       SUBSTANCE
1.          Explosive substances and articles
2.          Gases
3.          Flammable liquids
4.1        Flammable solids
4.2        Substances liable to spontaneous combustion
4.3        Substances which, in contact with water, emit flammable gases
5.1        Oxidizing substances
5.2        Organic peroxides
6.1        Toxic substances 
6.2        Infectious substances
7.          Radioactive materials
8.          Corrosive substances
9.          Miscellaneous dangerous substances and articles

Testing is performed according to UN manual of Tests and Criteria - Sektion 33.4.6 - Test N.4:Test method for self-heating substances and the the generated data can be used to classify dangerous goods and to use as a basis for risk analysis and research.

When testing according to Test N.4, the material may be classified as "Not a self-heating substance", "Self-heating substance - Packing group II/Cat. 1" or "Self-heating substance - Packing group III/Cat. 2". In some cases, the material may be classified as "Not a self-heating substance" if it is transported in smaller quantities, even though the test indicates self-heating.

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

In Test N.4, the material to be examined is placed inside a wire mesh basket, which is located inside an oven at a fixed elevated temperature. The temperature is then measured in the oven and at the centre of the sample over time.

An initial test is carried out in a metal wire basket with sides of 100 mm (1 dm²) and with an oven temperature of 140°C. This test shows whether the material is self-heating or not. If no self-heating occurs, the test is concluded and the material is reported as "Not a self-heating substance." If self-heating occures, an additional 1-3 tests are needed to determine the final packing group for the material. the occurrence of self-heating (temperature increase in the centre of the material > 60 °C above oven temperature) is examined at a specified oven temperature and test volume.

The definition of self-heating in Test No. 4 is that the temperature increase at the center of the material is 60°C or more above the oven temperature within 24 hours at a given oven temperature and test volume.

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

The result is summarized by RISE in a written report. The report is delivered in English.

Delivery time:

Leadtime is communicated separately upon quotation.

Area:
Fire safety
Packaging
Testing
Risk and safety
Contact person (Enter one name per field. Activated personal contact pages will appear automatically):
Cecilia Lövström, TIC-ingenjör
Hussni Al-Farra, TIC-ingenjör
Field measurements: No Price type: 1 Division: Division Safety and Transport Preparation: Description of preparation Preparation information:

Amount of material and sampling

Testing is performed on solid substances such as powders and granules. The amount of material required varies depending on the number of tests that need to be conducted. Each test requires 1 liter of the material. At least 2 liters of the material should be sent for testing.

The material should be sent in sealed containers.

Standards:

UN Reccomendations on the transport of dangerous goods, Manual of Tests and Criteria, section 33.4.6 Test N.4: Test method for self-heating substances

Certification and marking: Not applicable Type of service: Testing / Analysis / Evaluation Instrument: Not applicable General area: Not applicable Order information: Prior to testing we ask you to complete the order specification form and send this together with your order. Attach product and safety data sheet when possible. Delivery level: Accredited
cecilia.lovstrom@ri.se,hussni.al-farra@ri.se
PDF for order form.:

Order Specification (pdf, 348.57 KB)

Purpose - Header: Purpose Metod - Header: Method Delivery - Header: Deliveries More information - Header: Mer information
Order
ordering
Fire safety Sekundär områdes navigation:
Total defence and crisis preparedness
Packaging
Tjänstetyp tagg: Provning