🇵🇱 TENSLAB SPÓŁKA Z OGRANICZONĄ ODPOWIEDZIALNOŚCIĄ PL
Materials & polymersAutomotive
TENSLAB SPÓŁKA Z OGRANICZONĄ ODPOWIEDZIALNOŚCIĄ is a laboratory accredited by PCA under number AB 1700 (Gdańsk, Poland). Its accreditation scope covers 83 test methods in the following areas: Materials & polymers, Automotive. Test objects include: Welded joints, Organic coatings (paints, varnishes) – ferromagnetic / non-ferromag…, Steel mill products, Resistance welded joints. Most frequently used techniques: Tensile test at room temperature, Microscopic tests, Bend test.
At a glance
- Accreditation number: PCA AB 1700
- Methods in scope: 83
- Types of test objects: 14
- Techniques used: 33
- City: Gdańsk, Poland
- Accreditation number
- AB 1700
- Accreditation body
- PCA
- Address
- LABORATORIA BADAWCZE, ul. Śnieżna 5, 80-554 Gdańsk
- City
- Gdańsk, Poland
What this laboratory tests (14)
- Welded joints — 25 methods
- Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates — 17 methods
- Steel mill products — 16 methods
- Resistance welded joints — 5 methods
- Paints, varnishes, raw materials for paints and varnishes — 4 methods
- Metal products and materials — 3 methods
- Weld metal — 3 methods
- Bars, wire rod and wire for the reinforcement of concrete — 2 methods
- Pressure-welded joints — 2 methods
- Products and materials made of ferrous alloys — 2 methods
- Flat steel products — 1 method
- Metal products and materials, including welded joints — 1 method
- Paints, varnishes, plastics — 1 method
- Welded joints and metal products — 1 method
Analytical techniques used (33)
- Tensile test at room temperature — 10 methods
- Microscopic tests — 6 methods
- Bend test — 5 methods
- Vickers method — 5 methods
- Charpy method — 4 methods
- Macroscopic tests — 4 methods
- Spark excitation atomic emission spectrometry — 4 methods
- Breaking test — 2 methods
- Magnetic induction method — 2 methods
- Magnetic particle method — 2 methods
- Ultrasonic method — 2 methods
- Brinell hardness — 1 method
- Brinell method — 1 method
- Bubble method — 1 method
- Cataplasm test — 1 method
- and 18 more
Laboratory sections (2)
- TENSLAB Materials Testing Laboratory — 61 methods
- TENSLAB Anti-Corrosion Laboratory — 22 methods
Laboratory locations
- TENSLAB SPÓŁKA Z OGRANICZONĄ ODPOWIEDZIALNOŚCIĄ (main site) — ul. Śnieżna 5, 80-554 Gdańsk
- TENSLAB Materials Testing Laboratory — ul. Śnieżna 5, 80-554 Gdańsk
- TENSLAB Anti-Corrosion Laboratory — ul. Śnieżna 2, 80-554 Gdańsk
- TENSLAB Materials Testing Laboratory — ul. Dubois 23, 71-610 Szczecin
Certificate information
- Issue date
- 02.06.2026
- Issue no.
- 10
Accreditation scope — test methods (83)
| No. | Test object | Methodology / Parameters | Technique | Reference document | |
|---|---|---|---|---|---|
| TENSLAB Materials Testing Laboratory | |||||
| 1 | Welded joints | Mechanical properties: Maximum force Fm Tensile strength Rm Force range F up to 300 kN |
Tensile test at room temperature | PN-EN ISO 6892-1:2020-05 Method B | PN-EN ISO 4136:2022-12 | |
| 2 | Welded joints | Susceptibility of the welded joint to plastic deformation under a bending force and the presence of weld discontinuities in the welded joint | Bend test | PN-EN ISO 5173:2023-06 | |
| 3 | Welded joints | Size and distribution of weld imperfections on the internal fracture surface | Breaking test | PN-EN ISO 9017:2018-03 | |
| 4 | Welded joints | Hardness Range HV10, HV30 |
Vickers method | PN-EN ISO 9015-1:2011 | PN-EN ISO 6507-1:2024-04 | |
| 5 | Welded joints | Impact energy KV2, KV8, KU2, Lateral expansion LE Test temperature (23 ± 5) °C, reduced to -60 °C, liquid nitrogen Initial hammer energy 300 J |
Charpy method | PN-EN ISO 9016:2022-09 | PN-EN ISO 148-1:2017-02 | ASTM E23-18 | |
| 6 | Welded joints | Macrostructure | Macroscopic tests | PN-EN ISO 17639:2022-07 | |
| 7 | Welded joints | Microstructure | Microscopic tests | PN-EN ISO 17639:2022-07 | |
| 8 | Welded joints | Delta ferrite content, Ferrite number (FN) | Magnetic induction method | PN-EN ISO 8249:2018-11 | |
| 9 | Welded joints | Delta ferrite content | Microscopic tests | ASTM E562-19E01 | |
| 10 | Welded joints | Corrosivity | ASTM G48-25 Method A | PP TENSLAB/IGC-HNO3/1/2020, issue 1 of 22.09.2020 | PN-EN ISO 3651-2:2004 | ASTM A262-15 (2021) Practice E | ||
| 11 | Steel mill products | Mechanical properties: Maximum force Fm Tensile strength Rm Yield strength Re Proof strength, plastic extension Rp Percentage elongation after fracture A Percentage reduction of area after fracture Z Force range F up to 300 kN |
Tensile test at room temperature | PN-EN ISO 6892-1:2020-05 Method B | PN-EN 10164:2018-11 | |
| 12 | Steel mill products | Susceptibility of metals to plastic deformation under a bending force | Bend test | PN-EN ISO 7438:2021-04 | |
| 13 | Steel mill products | Impact energy KV2, KV8, KU2, Lateral expansion LE Test temperature (23 ± 5) °C, reduced to -60 °C, liquid nitrogen Initial hammer energy 300 J |
Charpy method | PN-EN ISO 148-1:2017-02 | ASTM E23-18 | |
| 14 | Steel mill products | HBW hardness Ball diameter 2,5 mm Load 187,5 kG |
Brinell method | PN-EN ISO 6506-1:2014-12 | |
| 15 | Steel mill products | HV hardness Range HV10, HV30 |
Vickers method | PN-EN ISO 6507-1:2024-04 | |
| 16 | Steel mill products | HRC hardness | Rockwell method | PN-EN ISO 6508-1:2016-10 | PN-EN ISO 6508-1:2024-06 | |
| 17 | Steel mill products | Corrosivity | ASTM G48-25 Method A | PN-EN ISO 3651-1:2004 | PP TENSLAB/IGC-HNO3/1/2020, issue 1 of 22.09.2020 | PN-EN ISO 3651-2:2004 | ASTM A262-15 (2021) Practice E | ||
| 18 | Steel mill products | Percentage content of elements: C, Mn, Si, P, S, Cr, Ni, Cu, V, Nb, Al, Mo Carbon C (0,01 – 0,6) % Manganese Mn (0,01 – 1,8) % Silicon Si (0,01 – 2,0) % Phosphorus P (0,005 – 0,05) % Sulphur S (0,005 – 0,05) % Chromium Cr (0,01 – 3,0) % Nickel Ni (0,01 – 4,5) % Copper Cu (0,01 – 0,5) % Vanadium V (0,01 – 0,3) % Niobium Nb (0,01 – 0,1) % Aluminium Al (0,005-0,2) % Molybdenum Mo (0,01-0,5) % |
Spark excitation atomic emission spectrometry | PN-H-04045:1997 | |
| 19 | Weld metal | Mechanical properties: Maximum force Fm Tensile strength Rm Yield strength Re Proof strength, plastic extension Rp Percentage elongation after fracture A Percentage reduction of area after fracture Z Force range F up to 300 kN |
Tensile test at room temperature | PN-EN ISO 6892-1:2020-05 Method B | PN-EN ISO 5178:2019-04 | |
| 20 | Products and materials made of ferrous alloys | Percentage content of elements: C, Si, Mn, P, S, Cr, Ni, Mo, V, Cu, Al, Nb, Ti, Co, W Carbon C (0,046 – 3,1) % Silicon Si (0,030 – 2,42) % Manganese Mn (0,098 – 0,78) % Phosphorus P (0,004 – 0,070) % Sulphur S (0,003 – 0,027) % Chromium Cr (0,003 – 25,000) % Nickel Ni (0,005 – 28,600) % Molybdenum Mo (0,250 – 5,890) % Vanadium V (0,038 – 1,520) % Copper Cu (0,006 – 2,940) % Aluminium Al (0,023 – 0,201) % Niobium Nb (0,045 – 0,080) % Titanium Ti (0,017 – 0,670) % Cobalt Co (0,009 – 0,500) % Tungsten W (2,320 – 6,350) % |
Spark excitation atomic emission spectrometry | PP TENSLAB/OES/1/2023 issue 1 of 02.01.2023 | |
| 21 | Pressure-welded joints | Macrostructure | Macroscopic tests | PP TENSLAB/MACRO/1/2022 issue 2 of 02.01.2023 | |
| 22 | Metal products and materials | Microstructure | Microscopic tests | PP TENSLAB/MICRO/1/2021 issue 2 of 02.01.2023 | |
| 23 | Metal products and materials | Surface and subsurface discontinuities | Magnetic particle method | PN-EN ISO 9934-1:2017-02 | |
| 24 | Flat steel products | Internal discontinuities | Ultrasonic method | PN-EN ISO 10160:2001 | |
| 25 | Metal products and materials, including welded joints | Surface discontinuities | Penetrant testing method | PN-EN ISO 3452-1:2021-12 | PN-EN ISO 3452-6:2009 | |
| 26 | Welded joints | Welding imperfections | Visual method | PN-EN ISO 17637:2017-02 | |
| 27 | Welded joints | Surface and subsurface discontinuities | Magnetic particle method | PN-EN ISO 17638:2017-01 | |
| 28 | Welded joints | Internal discontinuities | Ultrasonic method | PN-EN ISO 17640:2019-01 | |
| 29 | Welded joints | Discontinuities | Radiographic method | PN-EN ISO 17636-1:2023-02 | |
| 30 | Welded joints and metal products | Leakage | Bubble method | PN-EN ISO 1593:2004 | |
| 31 | Welded joints | Mechanical properties: Maximum force Fm Tensile strength Rm Force range F up to 1000 kN |
Tensile test at room temperature | PN-EN ISO 6892-1:2020-05 Method B | PN-EN ISO 4136:2022-12 | |
| 32 | Welded joints | Mechanical properties: Maximum force Tensile strength TS, UTS Force range F up to 1000 kN |
Tensile test at room temperature | ASME BPVC.IX - 2025 | AWS D1.1/D1.1M:2025 | AWS D1.6/D1.6M:2017-AMD1 | |
| 33 | Welded joints | Susceptibility of the welded joint to plastic deformation under a bending force and the presence of weld discontinuities in the welded joint | Bend test | PN-EN ISO 5173:2023-06 | ASTM E190-21 | ASME BPVC.IX - 2025 | AWS D1.1/D1.1M:2025 | AWS D1.6/D1.6M:2017-AMD1 | |
| 34 | Welded joints | Size and distribution of weld imperfections on the internal fracture surface | Breaking test | PN-EN ISO 9017:2018-03 | ASME BPVC.IX - 2025 | AWS D1.1/D1.1M:2025 | AWS D1.6/D1.6M:2017-AMD1 | |
| 35 | Welded joints | Hardness Range HV10 |
Vickers method | PN-EN ISO 9015-1:2011 | PN-EN ISO 6507-1:2024-04 | ASTM E92-23 | |
| 36 | Welded joints | Impact energy KV2, KU2, KV8, KU8, Lateral expansion LE Test temperature (23 ± 5) °C, reduced to -60 °C, liquid nitrogen Initial hammer energy 450 J |
Charpy method | PN-EN ISO 9016:2022-09 | PN-EN ISO 148-1:2017-02 | ASTM E23-25 | ASTM A370-24a | ASTM A923-25 Method B | AWS D1.1/D1.1M:2025 | |
| 37 | Welded joints | Macrostructure | Macroscopic tests | PN-EN ISO 17639:2022-07 | ASTM E340-23 | ASME BPVC.IX – 2025 | AWS D1.1/D1.1M:2025 | AWS D1.6/D1.6M:2017-AMD1 | |
| 38 | Welded joints | Microstructure | Microscopic tests | PN-EN ISO 17639:2022-07 | |
| 39 | Welded joints | Delta ferrite content, Ferrite number (FN) | Magnetic induction method | PN-EN ISO 8249:2018-11 | |
| 40 | Welded joints | Delta ferrite content | Microscopic tests | ASTM E562-19E01 | |
| 41 | Welded joints | Corrosivity tests | ASTM G48-25 Method A | PP TENSLAB/IGC-HNO3/1/2020 issue 1 of 22.09.2020 | ||
| 42 | Steel mill products | Mechanical properties: Maximum force Fm Tensile strength Rm Yield strength Re Proof strength, plastic extension Rp Percentage elongation after fracture A Percentage total extension at maximum force Agt Percentage reduction of area after fracture Z Force range F up to 1000 kN |
Tensile test at room temperature | PN-EN ISO 6892-1:2020-05 Method B | PN-EN 10164:2018-11 | |
| 43 | Steel mill products | Mechanical properties: Maximum force Tensile strength TS, UTS Yield strength YS Proof strength YS(offset) Percentage elongation after fracture Percentage elongation at maximum force Percentage reduction of area after fracture Force range F up to 1000 kN |
Tensile test at room temperature | ASTM A370-24a | ASTM E8/E8M-25 | |
| 44 | Steel mill products | Susceptibility of metals to plastic deformation under a bending force | Bend test | PN-EN ISO 7438:2021-04 | ASTM A370-24a | |
| 45 | Steel mill products | HBW hardness Ball diameter 2,5 mm and 10 mm Load 187,5 kG and 3000 kG |
Brinell hardness | PN-EN ISO 6506-1:2014-12 | |
| 46 | Steel mill products | Percentage content of elements: C, Mn, Si, P, S, Cr, Ni, Cu, Mo, V Carbon C (0,07 – 0,2) % Manganese Mn (1,1 – 1,8) % Silicon Si (0,3 – 1,0) % Phosphorus P (0,005 – 0,043) % Sulphur S (0,007 – 0,02) % Chromium Cr (0,18 – 3,0) % Nickel Ni (0,11 – 4,5) % Copper Cu (0,19 – 0,36) % Molybdenum Mo (0,04 – 0,05) % Vanadium V (0,045 – 0,1) % |
Spark excitation atomic emission spectrometry | PN-H-04045:1997 | |
| 47 | Steel mill products | Impact energy KV2, KU2, KV8, KU8, Lateral expansion LE Test temperature (23 ± 5) °C, reduced to -60 °C, liquid nitrogen Initial hammer energy 450 J |
Charpy method | PN-EN ISO 148-1:2017-02 | ASTM E23-25 | ASTM A370-24a | ASTM A923-25 Method B | |
| 48 | Steel mill products | Hardness Range HV10 |
Vickers method | PN-EN ISO 6507-1:2024-04 | ASTM E92-23 | |
| 49 | Steel mill products | Corrosivity tests | ASTM G48-25 Method A | PN-EN ISO 3651-1:2004 | PP TENSLAB/IGC-HNO3/1/2020 issue 1 of 22.09.2020 | ||
| 50 | Weld metal | Mechanical properties: Maximum force Fm Tensile strength Rm Yield strength Re Proof strength, plastic extension Rp Percentage elongation after fracture A Percentage total extension at maximum force Agt Percentage reduction of area after fracture Z Force range F up to 1000 kN |
Tensile test at room temperature | PN-EN ISO 6892-1:2020-05 Method B | PN-EN ISO 5178:2019-04 | |
| 51 | Weld metal | Mechanical properties: Maximum force Tensile strength TS, UTS Yield strength YS Proof strength YS(offset) Percentage elongation after fracture Percentage elongation at maximum force Percentage reduction of area after fracture Force range F up to 1000 kN |
Tensile test at room temperature | AWS D1.1/D1.1M:2025 in accordance with ASTM A370-24a | |
| 52 | Bars, wire rod and wire for the reinforcement of concrete | Mechanical properties: Maximum force Fm Tensile strength Rm Yield strength Re Proof strength, plastic extension Rp Percentage elongation after fracture A Percentage total extension at maximum force Agt Percentage reduction of area after fracture Z Force range F up to 1000 kN |
Tensile test at room temperature | PN-EN ISO 15630-1:2019-04 | PN-EN ISO 6982-1:2020-05 Method B | |
| 53 | Bars, wire rod and wire for the reinforcement of concrete | Susceptibility to plastic deformation bending |
Method: Bend test | PN-EN ISO15630-1:2019-04 | |
| 54 | Pressure-welded joints | Macrostructure | Macroscopic tests | PP TENSLAB/MACRO/1/2022 issue 2 of 02.01.2023 | |
| 55 | Metal products and materials | Microstructure | Microscopic tests | PP TENSLAB/MICRO/1/2021 issue 2 of 02.01.2023 | |
| 56 | Products and materials made of ferrous alloys | Percentage content of elements: C, Si, Mn, P, S, Cr, Ni, Mo, V, Cu, Al, Nb, Ti, Co, W Carbon C (0,046 – 3,1) % Silicon Si (0,030 – 2,42) % Manganese Mn (0,098 – 0,78) % Phosphorus P (0,014 – 0,070) % Sulphur S (0,003 – 0,027) % Chromium Cr (0,003 – 25,000) % Nickel Ni (0,005 – 28,600) % Molybdenum Mo (0,250 – 5,890) % Vanadium V (0,038 – 1,520) % Copper Cu (0,006 – 2,940) % Aluminium Al (0,023 – 0,201) % Niobium Nb (0,045 – 0,080) % Titanium Ti (0,017 – 0,670) % Cobalt Co (0,009 – 0,500) % Tungsten W (2,320 – 6,350) % |
Spark excitation atomic emission spectrometry | PP TENSLAB/OES/1/2023 issue 1 of 02.01.2023 | |
| 57 | Resistance welded joints | Plastic deformability of the pressure-welded joint under bending force and the presence of cracks in the pressure-welded joint | Bend test | PN-EN ISO 14555:2017-08 cl. 11.3 | |
| 58 | Resistance welded joints | Properties: weld nugget diameter (d, dw, dp) |
Peel test and chisel test | PN-EN ISO 10447:2015-04 | |
| 59 | Resistance welded joints | Properties: mechanised peel strength MPS weld nugget diameter (d, dw, dp) Force range F up to 1000 kN |
Mechanised peel test | PN-EN ISO 14270:2016-05 | |
| 60 | Resistance welded joints | Properties: shear strength TSS weld nugget diameter (d, dw, dp) Force range F up to 1000 kN |
Shear test | PN-EN ISO 14273:2016-05 | |
| 61 | Resistance welded joints | Hardness Range HV1 |
Vickers method | PN-EN ISO 14271:2017-11 | |
| TENSLAB Anti-Corrosion Laboratory | |||||
| 62 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Corrosion resistance to neutral salt spray NSS | PN-EN ISO 9227:2023-02 | ASTM B117-19 | ||
| 63 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Corrosion resistance in an atmosphere with condensation of moisture in a chamber with a heated water reservoir | PN-EN ISO 6270-2:2018-02 | ||
| 64 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Corrosion resistance to acetic acid salt spray AASS | PN-EN ISO 9227:2023-02 | ||
| 65 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Assessment of coating damage: blistering rusting cracking flaking filiform corrosion |
PN-EN ISO 4628-1:2016-03 | PN-EN ISO 4628-2:2016-03 | PN-EN ISO 4628-3:2025-02 | PN-EN ISO 4628-4:2016-03 | PN-EN ISO 4628-5:2023-01 | PN-EN ISO 4628-10:2024-09 | ||
| 66 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Assessment of coating damage: degree of chalking |
Tape method | PN-EN ISO 4628-6:2024-04 | |
| 67 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Assessment of coating damage: delamination and corrosion around a scratch or other artificial damage |
PN-EN ISO 4628-8:2013-05 | ||
| 68 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Adhesion | Cross-cut method; X-cut method | PN-EN ISO 2409:2021-03 | PN-EN ISO 16276-2:2008 | |
| 69 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Adhesion 20 mm (2 – 24) MPa 50 mm (0,3 – 3,8) MPa |
Pull-off method | PN-EN ISO 4624:2023-11 Method B | PN-EN ISO 16276-1:2008 | |
| 70 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Gloss at an angle of 20⁰/60⁰/85⁰ | PN-EN ISO 2813:2014-11 | ||
| 71 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Thickness of coatings Range (24-987) µm |
Magnetic method | PN-EN ISO 2808:2020-01 Method 7B.2 | |
| 72 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Thickness of coatings Range (24-987) µm |
Eddy current method | PN-EN ISO 2808:2020-01 Method 7C | |
| 73 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Thickness of coatings Range (0-2000) µm |
Optical method | PN-EN ISO 2808:2020-01 Method 6A | PN-EN ISO 1463:2021-10 | |
| 74 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Scratch resistance | Constant load method | PN-EN ISO 1518-1:2023-08 | |
| 75 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Tightness, Porosity of dry coatings | PN-EN ISO 29601:2011 | ||
| 76 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Resistance to wet poultice | Cataplasm test | PN-EN 13523-27:2017-05 | |
| 77 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Salt spray test, Condensation (one-side exposure) | PN-EN ISO 12944-6:2018-03 | ||
| 78 | Organic coatings (paints, varnishes) – ferromagnetic / non-ferromagnetic substrates, Inorganic coatings (metallic, oxide) – ferromagnetic / non-ferromagnetic substrates | Protection index, Appearance index, Protection efficiency index | PN-EN ISO 10289:2002 | ||
| 79 | Paints, varnishes, raw materials for paints and varnishes | Viscosity, Flow time | PN-EN ISO 2431:2019-07 | PN-EN ISO 1513:2010 | ||
| 80 | Paints, varnishes, raw materials for paints and varnishes | Density | Pycnometric method | PN-EN ISO 2811-1:2023-03 | PN-EN ISO 1513:2010 | |
| 81 | Paints, varnishes, raw materials for paints and varnishes | Surface drying | Glass bead method | PN-EN ISO 9117-3:2010 | PN-EN ISO 1513:2010 | |
| 82 | Paints, varnishes, raw materials for paints and varnishes | Drying | Method: modified Bandow-Wolff test | PN-EN ISO 9117-5:2012 | PN-EN ISO 1513:2010 | |
| 83 | Paints, varnishes, plastics | Non-volatile matter content | PN-EN ISO 3251:2019-07 | PN-EN ISO 1513:2010 | ||
Reference standards (89)
ASME BPVC.IX - 2025
ASME BPVC.IX – 2025
ASTM A262-15 (2021) Practice E
ASTM A370-24a
ASTM A923-25 Method B
ASTM B117-19
ASTM E190-21
ASTM E23-18
ASTM E23-25
ASTM E340-23
ASTM E562-19E01
ASTM E8/E8M-25
ASTM E92-23
ASTM G48-25 Method A
AWS D1.1/D1.1M:2025
AWS D1.1/D1.1M:2025 in accordance with ASTM A370-24a
AWS D1.6/D1.6M:2017-AMD1
PN-EN 10164:2018-11
PN-EN 13523-27:2017-05
PN-EN ISO 10160:2001
PN-EN ISO 10289:2002
PN-EN ISO 10447:2015-04
PN-EN ISO 12944-6:2018-03
PN-EN ISO 14270:2016-05
PN-EN ISO 14271:2017-11
PN-EN ISO 14273:2016-05
PN-EN ISO 14555:2017-08 cl. 11.3
PN-EN ISO 1463:2021-10
PN-EN ISO 148-1:2017-02
PN-EN ISO 1513:2010
PN-EN ISO 1518-1:2023-08
PN-EN ISO 15630-1:2019-04
PN-EN ISO 1593:2004
PN-EN ISO 16276-1:2008
PN-EN ISO 16276-2:2008
PN-EN ISO 17636-1:2023-02
PN-EN ISO 17637:2017-02
PN-EN ISO 17638:2017-01
PN-EN ISO 17639:2022-07
PN-EN ISO 17640:2019-01
PN-EN ISO 2409:2021-03
PN-EN ISO 2431:2019-07
PN-EN ISO 2808:2020-01 Method 6A
PN-EN ISO 2808:2020-01 Method 7B.2
PN-EN ISO 2808:2020-01 Method 7C
PN-EN ISO 2811-1:2023-03
PN-EN ISO 2813:2014-11
PN-EN ISO 29601:2011
PN-EN ISO 3251:2019-07
PN-EN ISO 3452-1:2021-12
PN-EN ISO 3452-6:2009
PN-EN ISO 3651-1:2004
PN-EN ISO 3651-2:2004
PN-EN ISO 4136:2022-12
PN-EN ISO 4624:2023-11 Method B
PN-EN ISO 4628-10:2024-09
PN-EN ISO 4628-1:2016-03
PN-EN ISO 4628-2:2016-03
PN-EN ISO 4628-3:2025-02
PN-EN ISO 4628-4:2016-03
PN-EN ISO 4628-5:2023-01
PN-EN ISO 4628-6:2024-04
PN-EN ISO 4628-8:2013-05
PN-EN ISO 5173:2023-06
PN-EN ISO 5178:2019-04
PN-EN ISO 6270-2:2018-02
PN-EN ISO 6506-1:2014-12
PN-EN ISO 6507-1:2024-04
PN-EN ISO 6508-1:2016-10
PN-EN ISO 6508-1:2024-06
PN-EN ISO 6892-1:2020-05 Method B
PN-EN ISO 6892-1:2020-05 Method B
PN-EN ISO 6982-1:2020-05 Method B
PN-EN ISO 7438:2021-04
PN-EN ISO 8249:2018-11
PN-EN ISO 9015-1:2011
PN-EN ISO 9016:2022-09
PN-EN ISO 9017:2018-03
PN-EN ISO 9117-3:2010
PN-EN ISO 9117-5:2012
PN-EN ISO 9227:2023-02
PN-EN ISO 9934-1:2017-02
PN-EN ISO15630-1:2019-04
PN-H-04045:1997
PP TENSLAB/IGC-HNO3/1/2020 issue 1 of 22.09.2020
PP TENSLAB/IGC-HNO3/1/2020, issue 1 of 22.09.2020
PP TENSLAB/MACRO/1/2022 issue 2 of 02.01.2023
PP TENSLAB/MICRO/1/2021 issue 2 of 02.01.2023
PP TENSLAB/OES/1/2023 issue 1 of 02.01.2023