RISE is a designated Technical service for testing of vehicle wind screens for type approval according to the ECE-regulation.

The ECE-regulations are uniform technical regulations for wheeled vehicles and equipment intended to be mounted on such vehicles. The purpose of the regulations is to ensure that all products that are marketed have been type approved to fulfil the requirements in the regulations. We offer testing for type approval of vehicle equipment related to lighting and retro-reflecting devices. 

In order for a product to be marketed it has to be type approved by the Swedish Transportation Authority. As a designated Technical service RISE has been approved by the Swedish Transportation Authority to perform testing in connection with type approval.

RISE is also approved for initial assessment and surveillance audits (CoP) of quality management systems of manufacturer´s within the scope of type approval.

We use several different ackredited methods to test products against the requirements set forth in the ECE-regulations. 

We test products against the requirements in ECE R43. 

The results are reported in a test report, written in English, with an accreditation mark. 

ECE R1, R2, R3, R4, R5, R6, R7, R8, R19, R20, R23, R27, R31, R37, R38, R43, R45, R46, R50, R56, R65, R69, R70, R77, R82, R87, R91, R98, R99, R112, R113, R119, R123, R148, R149, R150. 

Reliable material data is key to replacing virgin polymers with recycled alternatives. RISE offers an industry-driven testing program delivering independent, comparable, and reproducible results, enabling confident decisions, faster product development, and more sustainable solutions.

Reliable material data is essential for successfully replacing virgin polymers with recycled alternatives. RISE offers an industry-driven testing program that delivers independent, comparable, and reproducible data for polymer materials. Through standardized methods, controlled testing conditions, and extensive experience in polymer characterization, we provide results you can trust, regardless of the material’s origin or intended application.

Our modular testing program covers polymers such as polypropylene (PP), polyethylene (PE), PET, ABS, and polyamide (PA), providing valuable insights for material selection, quality verification, product development, and research. By complementing existing material data with additional property measurements, the accuracy of process and structural simulations can be significantly improved, leading to better decision-making and reduced development risks. For example, our test methods can generate the material data required for advanced injection molding simulations, including flow, cooling, and warpage analyses.

Based on your specific needs and technical challenges, we offer both standardized and customized test matrices. Whether you require rapid verification of material quality or more in-depth analyses for product development, troubleshooting, or material benchmarking, we can tailor the testing scope to provide relevant, reliable, and actionable data for informed decision-making.

Standard testing

For fast, cost-effective, and reproducible verification of material properties. Testing is performed according to a standardized test matrix, providing comparable results.

Typical Scope:

• Sample preparation and injection molding of test specimens according to ISO and ASTM standards
• Mechanical, thermal, optical, and physical characterization, including density determination
• Compilation of results in a Material Test Report, Material Test Protocol, or Technical Data Sheet (TDS)

Advanced testing

When standard testing is not sufficient, RISE offers in-depth analyses and specialist expertise for product development, material evaluation, and technical troubleshooting. We help you understand material behavior, identify root causes of quality issues, and generate decision-support data for the development of future materials and products.

Typical Scope:

• Microscopic analysis at micro- and nanoscale
• Rheological testing
• Chemical analyses and substance screening
• Ageing studies, stress testing, and particle analysis
• Advanced reporting, result interpretation, and technical consulting
• Customized testing programs tailored to specific product or material challenges

Examples of test methods and corresponding standards used to evaluate the properties and performance of polymer materials:

• Mechanical properties:
  Tensile, flexural, impact (Charpy), and compressive properties
  ISO 527, ISO 178, ISO 179-1, ISO 604, ASTM D638, ASTM D790
• Physical and rheological properties
  Density, melt flow rate (MFR/MVR), viscosity, and rheology
  ISO 1183, ISO 1133, ISO 1628, ISO 11443, ASTM D792, ASTM D1238
• Thermal properties
  DSC (Tm, Tg), HDT/Vicat, DMA, OIT
  ISO 75, ISO 306, ISO 11357, ISO 6721, ASTM D3418, ASTM D648
• Chemical composition and durability
  Thermogravimetric analysis (e.g., fillers and carbon black), moisture content, UV ageing
  ISO 11358, ISO 15512, ISO 4892, ASTM G154, ASTM G155
• Fire and functional testing
  Flammability, glow-wire testing, drop testing, odor assessment
  UL 94, DIN 75200, EN 60695, RISE IVF methods
• Sample preparation
  Injection-molded and machined test specimens
  ISO 527, ISO 178, ISO 179-1

The deliverable consists of a structured and quality-assured material test protocol that compiles documented results from the analyses performed. The report describes the polymer’s key quality characteristics, including chemical, physical, and mechanical properties, based on established and relevant test methods. It provides a reliable basis for informed decision-making and the continued use, qualification, or development of the material.

Contact details

Hampus Johansson
hampus.johansson@ri.se
+ 46 10 228 45 05

Zinnia Kovanen, 
zinnia.kovanen@ri.se
+46 10 228 45 43

Results are typically delivered within 4 weeks after the material samples have been received by RISE.

Material samples must be submitted to RISE at the following address: 

Fibre- and Polymer Technology (103105)
RISE Research Institutes of Sweden
Argongatan 30
SE-431 53 Mölndal
Sweden

Samples must be clearly labeled and accompanied by information ensuring full traceability, including company name, company address, contact person and contact details, material identification, batch number, requested analyses. This information enables efficient sample handling and ensures that all test results can be accurately linked to the correct sample and customer.
 

Mechanical properties:
Tensile, flexural, impact (Charpy), and compressive properties
ISO 527, ISO 178, ISO 179-1, ISO 604, ASTM D638, ASTM D790

Physical and rheological properties
Density, melt flow rate (MFR/MVR), viscosity, and rheology
ISO 1183, ISO 1133, ISO 1628, ISO 11443, ASTM D792, ASTM D1238

Thermal properties
DSC (Tm, Tg), HDT/Vicat, DMA, OIT
ISO 75, ISO 306, ISO 11357, ISO 6721, ASTM D3418, ASTM D648

Chemical composition and durability
Thermogravimetric analysis (e.g., fillers and carbon black), moisture content, UV ageing
ISO 11358, ISO 15512, ISO 4892, ASTM G154, ASTM G155

Fire and functional testing
Flammability, glow-wire testing, drop testing, odor assessment
UL 94, DIN 75200, EN 60695, RISE IVF methods

Sample preparation
Injection-molded and machined test specimens
ISO 527, ISO 178, ISO 179-1 

Our goal is to ensure the performance and reliability of your innovative polymer nanocomposites in demanding applications such as automotive, and electronics. We offer accredited testing services according to international standards (ISO & ASTM) including mechanical tests, thermal and thermomechanical properties, and post-aging evaluations.

Nanocomposites are advanced polymers reinforced with nanomaterials (such as carbon nanotubes, graphene, nanoclays, or metal oxides) that provide increased strength and sustainability.  We offer accredited testing services according to international standards (ISO & ASTM) tailored to the unique requirements of polymer nanocomposites to ensure reliable results and performance in demanding applications such as automotive, aerospace, electronics, packaging, and construction.

We perform standard tests such as ISO 527 (tensile strength), ISO 179 (impact resistance), ISO 604 (compressive modulus), ISO 188 (heat aging), ASTM D882 (film tensile strength), ISO 34-1 (tear strength), ISO 6383 (film tear resistance), ISO 1133 (melt flow index), ISO 1183 (density), ISO 4892 series (weather resistance), ISO 306 (Vicat softening temperature), and ISO 75 (heat deflection temperature).

Key Characterization Capabilities

• Mechanical Performance
  • Tensile, flexural, and impact tests
  • Hardness
  • Wear-resistance
• Thermal Properties
  • Thermogravimetric Analysis (TGA)
  • Differential Scanning Calorimetry (DSC)
• Thermomechanical properties
  • Vicat softening temperature
  • HDT (Heat Deflection Temperature)
• Aging Tests
  • Accelerated aging under sellected conditions such as heat, humidity, UV, and chemicals.
  • Evaluation of property changes induced by aging
• Melt flow index

ISO 527, ISO 179, ISO 604, ISO 188, ASTM D882, ISO 34-1, ISO 6383, ISO 1133, ISO 1183, ISO 4892, ISO 306 and ISO 75.

Report

When using handheld machines in various operations, there are risks related to both noise and vibrations that can directly affect health and workplace safety.

Prolonged use at high noise levels can impact hearing and cause stress. Vibrations can lead to injuries in hands and arms. With RISE’s professional services for accredited noise and vibration measurements, you can be assured that your machines meet the requirements and that the work environment is safe.

Why is Vibration Measurement Important?

According to the Swedish Work Environment Authority’s regulations (AFS 2023:10), employers must assess and limit hand-arm vibration exposure. The limit values are:

• Action value (A(8)): 2.5 m/s²
• Exposure limit value: 5.0 m/s²

Why is Noise Measurement Important?

According to the Swedish Work Environment Authority’s regulations (AFS 2023:10), employers must assess and limit noise exposure in the workplace. Noise can cause hearing damage, tinnitus, and affect concentration, performance, and overall health.

Noise exposure limit values:

• Action values (L_EX,8h):
  • Lower action value: 80 dB(A)
  • Upper action value: 85 dB(A)
• Daily exposure level (L_pAFmax): 85 dB(A)
• Peak value (L_pCpeak): 135 dB(C)

Exceeding these values can have both legal and health-related consequences. Employers are required to implement measures such as hearing protection, technical solutions, and training to reduce risks.

Accredited Noise Measurements

We follow international standards and are accredited for:

• Sound power measurements
  Accredited standards: SS-EN ISO 3741, 3744, 3745, 3746, 3747, 9614
• Operator position
  Accredited standards: SS-EN ISO 11201, 11202, 11203

Accredited Vibration Measurements

• Hand-arm vibration measurement
  Accredited according to SS-EN ISO 5349

Why Choose RISE?

• Extensive experience: RISE has long-standing and documented expertise in vibration and noise measurement.
• Advanced measurement technology: We use calibrated instruments and follow international standards to provide reliable results.
• Specialized laboratories for accurate and dependable measurements:
  ✔ Semi-anechoic chamber – sound measurements without reflections
  ✔ Reverberation room – determination of sound absorption and sound power
  ✔ Transmission lab – measurement of sound insulation and transmission

Field measurements:

• Control measurements according to the Swedish Work Environment Authority’s regulations and general guidelines

• Sound power measurements
  Accredited standards: SS-EN ISO 3741, 3744, 3745, 3746, 3747, 9614
• Operator position
  Accredited standards: SS-EN ISO 11201, 11202, 11203
• Hand-arm vibration measurement
  Accredited according to SS-EN ISO 5349

The result of our service is a accredited test report

• Sound power measurements
  Accredited standards: SS-EN ISO 3741, 3744, 3745, 3746, 3747, 9614
• Operator position
  Accredited standards: SS-EN ISO 11201, 11202, 11203
• Hand-arm vibration measurement
  Accredited according to SS-EN ISO 5349

To ensure that children's toys are safe to use, a wide range of rules and regulations are in place. Among the most comprehensive frameworks is the Toy Safety Directive (2009/48/EC), supplemented by harmonized standards. The directive sets requirements for toy safety, including chemicals, flammability, general safety, and electrical safety.

All toys sold within the EU must bear the CE mark. To achieve this, the toy must meet the requirements of the Toy Safety Directive. The products are tested according to harmonized standards to ensure that these requirements are met.

We perform testing of toys in accordance with the SS-EN 71 series, the REACH Regulation, the RoHS Directive, and other relevant regulations.

The requirements in the standards vary depending on which age group the toy is intended for and what type of toy it is.

Accredited testing according to the SS-EN 71 series and assessments according to the REACH Regulation and RoHS Directive

We offer accredited testing according to the following standards:

• SS-EN 71-1 – Mechanical and physical properties
  Tests the toy’s safety against mechanical hazards such as small parts, sharp edges, and durability during normal use.
• SS-EN 71-2 – Flammability
  Evaluates the toy’s flammability characteristics to minimize the risk of the product igniting easily or contributing to a fire.
• SS-EN 71-3 – Migration of certain elements
  Tests whether heavy metals and other regulated substances migrate from the toy in hazardous amounts when in contact with saliva, sweat, or gastric acid.

In addition to these accredited tests, we also offer assessments and analyses to ensure compliance with:

• REACH Regulation
  Lead and cadmium.
• RoHS Directive
  Assesses whether electrical and electronic toys meet the requirements for restricting hazardous substances such as lead, mercury, and cadmium.

These services are performed according to harmonized standards to ensure that products meet all applicable safety requirements within the EU.

Our operations include both accredited and non-accredited testing methods. The scope of accreditation is available upon request – please contact us for more information.

The result is delivered in the form of a report.

Delivery time varies depending on the product complexity.

We would like to see photos of your product before we can provide a price estimate for the testing.

SS-EN 71-1 (Accredited)

SS-EN 71-2 (Accredited)

SS-EN 71-3 (Accredited)

REACH Regulation

RoHS Directive

Expanded polymaterial is used in a wide range of applications – from building insulation and packaging to vehicle components and technical solutions. To ensure that the products meet requirements for quality, safety and durability, thorough testing is essential. Examples of test methods are EN ISO 29469, EN 826, EN 1607, EN 1798

Why do we test foam materials?

Foams, such as EPS, XPS, Polyurethane (PUR/PIR) and foamed polyethylene (PE-foam), are an important part of energy-efficient and sustainable building solutions, as well as other products such as protective equipment, furniture, vehicle etc. To ensure that these products function as they should throughout their entire life cycle, testing is carried out according to international standards. The purpose of the testing is to guarantee quality, safety and performance.

Compression testing (EN ISO 29469) shows how the material withstands loads, for example when installed under floors or roofs. Tensile testing (EN 1607) ensures that insulation boards remain securely attached to the substrate, which is essential for a safe installation. Water vapor permeability testing (EN 12086) helps assess moisture safety and reduce the risk of condensation within the structure. For soft cellular materials, ISO 1798 measures tensile strength and elongation to verify flexibility and durability, while ISO 1856 determines compression set, indicating how well the material retains its shape over time.

Through these tests, we guarantee that your products meet high standards of durability and energy efficiency.

We can also help tailor made testing methods to suit your products, materials, needs, and requirements.

We agree on how the results will be presented. This can be in the form of a report, a personal presentation, or delivery according to your specific requirements.

Accreditation

Our laboratory is accredited according to ISO 17025. Several of the methods can therefore be performed under accreditation. Please contact us for more information.

Acc. to agreement

EN ISO 29469, Thermal insulating products for building applications - Determination of compression behaviour

EN 826, Värmeisoleringsprodukter för byggnader - Bestämning av egenskaper vid kortvarig tryckbelastning (ersatt av EN ISO 29469)

EN 1607; Thermal insulating products for building applications - Determination of tensile strength perpendicular to faces

EN 12086, Thermal insulating products for building applications - Determination of water vapour transmission properties

ISO 1798, MFlexible cellular polymeric materials - Determination of tensile strength and elongation at break 

ISO 1856, Flexible cellular polymeric materials - Determination of compression set 

There are several new standards that define how traceability and recycled content in plastic products should be documented and verified. Examples of test standards are SS-EN 15345 (PP), EN 15342 (PS) and EN 15344 (PE).

These standards make it easier for companies in the whole value chain to compare different types of recycled plastic raw materials and consist of a number of different testing methods, depending on the material.

These standards refers to properties such as melt index, density, mechanical, thermal, visual, etc. depending on the material being tested.

We deliver test results and analysis according to standard or agreed upon, as well as a report according to your wishes. Several of these methods can be performed accredited, which is often a requirement.

Contact us for guidance and price request.

According to agreement

ISO 1133, Melt index

ISO 1183, Density determination

ISO 11664, Visual assessment or spectrophotometry

ISO 11358, Thermogravimetric analysis (TGA)

ISO 3451, Visual inspection, filtration

ISO 527, Tensile testing

ISO 179 , ISO 180, Impact strength

ISO 11357, OIT or DSC analysis

ISO 1628-5, Intrinsic viscosity

ISO 15512, Karl Fischer or drying method

EN 15342, Characterization of polystyrene (PS)

EN 15343, Characterization of polypropylene (PP)

EN 15344, Characterization of polyethylene (PE)

EN 15346, Characterization of polyvinyl chloride (PVC)

EN 15348, Characterization of poly(ethylene terephthalate) (PET)

EN 18064, Plastics — Quality recommendations and basis for specifications for application of plastic recyclates in products

Quantifying the release rate of active substances is crucial for understanding and controlling their function in various applications. RISE offers reliable methods to measure, analyze, and model release in relevant environments.

Measuring the release rate of active substances is essential in many application areas, such as pharmaceuticals, agriculture, and food. Release can occur from both small carrier particles and macroscopic products such as textiles, coatings, and gels. By carefully measuring the release rate, we can ensure that active substances are delivered effectively and safely. This is particularly important for optimizing dosage, minimizing side effects, and improving product performance over time.

RISE offers a range of methods for measuring controlled release of active substances. The choice of method depends on the specific properties of the active substance, the surrounding matrix, and the release medium (into which the active substance leaks). Different usage environments (e.g., seawater, soil, or a physiological environment such as wound fluid) can be simulated by selecting the appropriate release medium, and accelerated studies can be conducted using higher temperatures or additives that increase solubility in the release medium.

Instrumentation and Analysis
RISE has expertise in accurately measuring and analyzing the release of active substances using methods based on both gas and liquid chromatography as well as UV-vis spectrophotometry.

Modeling of Release Rate
To predict and optimize release profiles, we use various physical release models based on Fick’s law of diffusion. The models are based on both analytical and numerical solutions that, in addition to diffusion constants and partition coefficients, also consider dynamic processes such as interactions with and degradation of the surrounding matrix. Different product geometries can be adapted, from simple small spherical carrier particles or flat coatings to complex nonwovens with an inherent size distribution of fiber radii. These models can help understand the mechanisms governing release and design systems with desired release properties. 

RISE strives to deliver customized solutions for measuring controlled release of active substances, tailored to each customer’s unique needs. Deliverables may include reports with analysis results, optimized measurement protocols, and recommendations for further product development. We can also offer ongoing support and advice to ensure that the measured release profiles meet desired requirements and standards.

Gain complete confidence that your weapon-firing simulators and target simulators meet the highest standards. We offer accredited testing according to SISO-STD-016-00-2016, ensuring that your systems operate smoothly and reliably with those from other manufacturers.

During military exercises, laser-based weapon-firing simulators and target simulators are often used. By standardising how weapon-firing simulators and target simulators encode and decode the optical laser engagement signal, it becomes possible for units from different manufacturers to operate together on the combat training field. This is particularly important when different armed forces, such as those within NATO, conduct joint live simulation combat exercises.

As an independent testing institute with extensive metrological expertise, we perform accredited testing of both weapon-firing simulators and target simulators. Independent verification that a product meets the requirements of the standard is often a prerequisite set by procurers and buyers.

The testing is carried out with equipment and an accredited method developed by RISE, based on the standard SISO-STD-016-00-2016 and the corresponding test plan SISO-REF-073-00-2020. The testing is performed in RISE’s laboratory, or upon request, at the customer’s site.

The results of the testing are summarised in a report, where each subtest in the test plan (SISO-REF-073-00-2020) is presented separately.

SISO-STD-016-00-2016

SISO-REF-073-00-2020

Do your products meet today's expectations for quality assurance, health protection and environmental responsibility requirements? We help you find out - with advanced analyses tailored to your needs and the latest EU standards.

Our expert analyses ensure your products meet the highest standards for safety, performance, and sustainability.

Using advanced analytical techniques like GC-MS, LC-MS, ICP-MS, XRF, IC and accredited test methods, we support you in:

•  Make confident decisions in product development
• Protect health by identifying hazardous substances and unwanted residues
• Ensure high water quality through advanced analysis
• Demonstrate compliance with national and EU regulations
• Meet environmental responsibility and sustainability standards

Smarter decisions for safer, better products

• Accredited methods for the analysis of materials intended to come into contact with drinking water
• Validated procedures that meet the requirements of ISO/IEC 17025:2017 for water analysis
• Assessment of how materials affect drinking water
• Determination of turbidity, color, organics, metals and ions
• Identification of volatile substances

• Report in Swedish or English
• Trusted results

Depending on the complexity and number of samples.

-EN 12873-1:2014
-EN 12873-2:2021
-SS-EN ISO 7887:2011-method C
-EN 1420:2016
-SS-EN ISO 7027-1:2016 nephelometry
-EN ISO 17294-2
-SS-EN 1484:1997
-RISE Metod 5811
-EN ISO 10304-1
-SS-EN 15768:2015
-EN ISO 14911
 -EN 1622