EN 717-1: Formaldehyde emissions from construction materials

The burning rate of horizontally mounted materials designed to be used in vehicles and buses must be tested with the UN/ECE R118 annex 6 test before they can be approved for use. Measurlabs offers this and the other R118 tests with accreditation. In the test method, the exposed side of the test specimen is burned from underneath and the burning rate is measured and expressed in mm/min.

The melting behavior of fusible materials used in certain motor vehicles must be determined according to Annex 7 of UN/ECE Regulation 118. In the test, it is monitored whether the specimen ignites, creates flaming droplets, and if these droplets ignite cotton wool placed under the specimen. For the material to pass the test, there must be no formation of flaming drops that ignite the cotton wool. Measurlabs can offer accredited test reports for the UN/ECE R118 Annex 7 test, as well as the Annex 6 and Annex 8 tests. Non-isotropic materials must be tested from both sides, which means that double the number of samples is required.

We offer comprehensive test packages for verifying the quality of type II and type IIR face masks according to the EN 14683 standard. The tests included in the packages are required to label face masks with the CE marking. Medical face masks are divided into Types I and II according to their bacterial filtration efficiency. Type I masks are not intended for healthcare professionals, but for the public to prevent the spread of infectious diseases. Type II masks are further classified based on whether they are splash-resistant (Type IIR) or not (Type II). To comply with the European Standard EN 14683, Type II face masks must undergo the following quality tests: Bacterial filtration efficiency (BFE) - The ability of the face mask to filter the bacterium Staphylococcus aureus. The BFE is expressed as the percentage of colony-forming units (cfu) that have passed via aerosol through the facemask. If a face mask consists of two or more areas with different characteristics, these areas will be tested separately., Breathability (Differential pressure) - The amount of differential pressure required to draw air through a measured surface area at a constant flow rate., Microbial cleanliness (Bioburden) - The measurement of colony forming units per gram as per EN ISO 11737-1., Biocompatibility - The medical face mask manufacturer shall complete a biocompatibility evaluation according to ISO 10993-1 as a surface device with limited contact. The applicable toxicology testing regimen shall also be determined.. In addition to the above, Type IIR masks require the following test: Splash resistance - Performed according to ISO 22609, this test determines the ability of a face mask to resist penetration of splashes of liquid at different pressures.. The lower displayed price applies to the Type II mask test package, while the higher price also includes the splash resistance test required for Type IIR masks.

Standard EN 228 outlines the testing requirements and methods for gasoline quality testing. The following tests are included in the package: Standard Parameter Requirements EN ISO 5164 RON Min. 95 EN ISO 5163 MON Min. 85 EN 237 Lead content Max. 5 mg/l EN ISO 12185 Density at 15 °C 720–775 kg/m3 EN ISO 20846 Sulfur content Max. 10 mg/kg EN 16136 Manganese content Max. 2 mg/l EN ISO 7536 Oxidation stability Min. 360 minutes EN ISO 6246 Washed gum content Max. 5 mg/100ml EN ISO 2160 Copper corrosion Class 1 ASTM D4176 Appearance Bright and clear EN ISO 22854 Hydrocarbon composition Benzene max. 1 v%, aromatics max. 35 v%, olefins max. 18 v%, oxygenates* EN 13016-1 Vapor pressure at 37.8 °C (DVPE) Depends on volatility class** EN ISO 3405 Distillation characteristics Final boiling point max. 210 °C, distillation residue max. 2 v%, evaporated volumes*** * For gasoline with max. 3.7 m% of oxygen, allowed oxygenate contents are methanol 3 v%, ethanol 10 v%, iso-propanol 12 v%, iso-butanol 15 v%, tert-butanol 15 v%, ethers with five or more carbon atoms 22 v%, and other oxygenates 15 v%. For gasoline with max. 2.7 m% of oxygen, allowed oxygenate contents are methanol 3 v% and ethanol 5 v%. ** For volatility class A: 45–60 kPa, B: 45–70 kPa, C: 50–80 kPa, D: 60–90 kPa, E: 65–95 kPa, and F: 70–100 kPa *** Percentage evaporated at 70 °C (E70): winter 22–50 v%, summer 22–48 v%, at 100 °C (E100): 46–71 v%, and at 150 °C (E150): min. 75 v%

Cement material heat of hydration test using Isothermal Conduction Calorimetry (ICC) according to standard EN 196-11.

ISO 5659-2 outlines the procedure for measuring the optical density of smoke produced by a material placed in a closed test cabinet and exposed to thermal radiation. The standard was originally developed for plastics, but it can be applied to a range of other products and materials. In the test, representative specimens of the material are mounted horizontally in a test chamber, and their upper surface is exposed to a specified level of thermal irradiance (usually 25 kW/m2 or 50 kW/m2), with or without a pilot flame. The resulting smoke is collected, and its optical density is measured using a photometric method. Some of the key parameters measured include the maximum specific optical density (Ds,max), the specific optical densities at specified times (Ds(1,5), Ds(4), Ds(10)), and the cumulative specific optical densities during the first 4 minutes of the test (VOF4). A toxicity measurement can also be included to measure toxic gas emissions. Its results are reported as the conventional index of toxicity (CITG). The ISO 5659-2 smoke production test is often required as part of the EN 45545-2 fire safety evaluation of railway materials.

ICP-MS elemental analysis for geological samples (rocks, ore, mining samples) with aqua regia digestion. The analysis includes the following elements: Ag, Al, As, Au, B, Ba, Be, Bi, Ca, Cd, Ce, Co, Cr, Cs, Cu, Fe, Ga, Ge, Hf, Hg, In, K, La, Li, Mg, Mn, Mo, Na, Nb, Ni, P, Pb, Pd, Pt, Rb, Re, S, Sb, Sc, Se, Sn, Sr, Ta, Te, Th, Ti, Tl, U, V, W, Y, Zn and Zr. The following rare earth elements (REE) are also included: Dy, Er, Eu, Gd, Ho, Lu, Nd, Pr, Sm, Tb, Tm, and Yb. Gold determinations by this method are semi-quantitative due to the small sample weight used. The price does not include pretreatment, such as crushing or sieving. Shipping included up to 5 kg total weight, extra cost for larger shipments.

This method is used to determine the gross heat of combustion of solid building products at constant volume in a bomb calorimeter. Results are reported in J/kg. If the product is non-homogeneous, meaning that it consists of multiple materials, each material must be tested separately. The result can be used to classify construction products into classes A1, A1fl, A1L, A2, A2fl, and A2L according to the fire classification standard EN 13501-1.

Fire testing according to EN ISO 9239-1 is used to evaluate the ability of flooring to withstand flames and radiant heat. Flame spread, smoke generation, and the lowest radiant heat to sustain burning are measured. The method is primarily used to classify floor coverings according to the European EN 13501-1 fire classification system. Depending on the results, floorings can be categorized as A2fl, Bfl, Cfl, or Dfl. A smoke production classification of s1 or s2 is also provided. Another use case is assessing the burning behavior of floor composites and interior horizontal surfaces used in rail vehicles according to the EN 45545-2 standard. The testing procedure is the following: 1) The test specimen is placed in a horizontal position below a gas-fired radiant panel inclined at 30°, where it is exposed to a defined heat flux. 2) A pilot flame is applied to the hotter end of the specimen. 3) Following ignition, any flame front that develops is noted, and a record is made of the progression of the flame front horizontally along the length of the specimen, measuring the time it takes for the fire to spread to defined distances. 4) Smoke production is recorded as light transmission in the exhaust stack. One specimen is tested in one direction (e.g. production direction) and another in the direction perpendicular to the first specimen. The test that yields the worst results is repeated twice in that direction.

The ISO 4589-2 oxygen index test is used to evaluate the fire behavior of certain railway materials according to the EN 45545-2 standard. It is required to meet requirements R22, R23, and R24, which apply to products such as insulators, seals, pipes, and hoses. The oxygen index (OI) is the minimum volume-based percentage of oxygen in an oxygen-nitrogen mixture required to support the combustion of the sample under specified conditions. For a material to meet EN 45545-2 requirements, the OI must be at least 28% (hazard classes HL1 and HL2) or at least 32% (HL3). Testing is performed on 20 replicate samples, with the required specimen size depending on the material: 80−150 mm x 10 mm x 4 mm for mould-made materials, such as plastics, 80−150 mm x 10 mm x 10 mm for porous materials, such as foams, 140 mm x 52 mm x d, where d < 10.5 mm, for flexible films, sheets, and fabrics.