Information on the most widely used ASTM standards within the materials testing industry
EN 388:2016+A1:2018 – Protective gloves against mechanical risks, is a cornerstone standard in the global PPE industry.
EN 388 is a type testing and performance classification standard for gloves designed to protect against physical and mechanical hazards such as abrasion, cut, tear, and puncture. Its principle is to subject glove samples to a series of standardized laboratory tests, each generating a numerical performance level. These levels are then displayed on a pictogram label on the glove, providing users with an at-a-glance understanding of its protective capabilities.
Test Methods and Symbols:
![]() | ![]() |
Test Methods details introduction:
| 1, Abrasion Resistance (ISO 12947‑1 Martindale) | |
| Method: | The specimen is rubbed against standard abrasive paper under a 9kPa pressure. The test stops when a hole is worn through. |
| Equipment: | Martindale Abrasion Tester |
| Performance Levels: | Levels 1-4 based on cycles: 1: 100 cycles 2: 500 cycles 3: 2000 cycles 4: 8000 cycles |
| Principle: | Wear durability under repeated friction; higher cycles = better resistance. |
| Specimen: | 4 circular specimens (diameter 38mm) from palm/fingers;
|
| 2, Cut Resistance (two kinds methods) | |
| 2.1, Coup Test (Rotating Blade) | |
| Method: | The blade rotates while moving laterally across the specimen under a 5N force. The index is calculated by comparing cycles needed to cut through the glove sample vs. a reference fabric. 45 mm circular blade (5 rpm, 5 N load) cuts specimen; index = (sample cycles / reference cycles) × 10. |
| Equipment: | Couptest / CoupTest apparatus with a rotating blade. |
| Performance Levels: | Levels 1-5 based on Index: 1: 1.2 ≤ index < 2.5 2: 2.5 ≤ index < 5.0 3: 5.0 ≤ index < 10.0 4: 10.0 ≤ index < 20.0 5: index ≥ 20.0 |
| Principle: | Measures the number of cycles needed for a rotating circular blade under a fixed load to cut through the specimen.
|
| Specimen: | 2 rectangular specimens; Length 60mm, Width 100mm, used for conventional materials (leather, cotton). |
| 2.2, ISO 13997 (TDM‑100 Linear Blade Cut Test): | |
| Method: | 20 mm blade moves at 100 mm/min; force to cut 20 mm length recorded. |
| Equipment: | TDM‑100 Linear Cut Tester / TDM (Tomodynamometer) machine with a straight blade. |
| Performance Levels: | A (2 N) – F (30 N). Reported as a force in Newtons (e.g., TDM 30N) directly. Replaces the Couptest index if used. |
| Principle: | The blade is drawn across the specimen with increasing force until a 20mm cut is achieved. The force required is the result.
|
| Specimen: | 2 rectangular specimens; mandatory for high‑performance materials (Kevlar, Dyneema) to avoid blade dulling. |
| 3, Tear Resistance Test | |
| Method: | The two legs of the specimen are gripped and pulled apart at a constant speed of 100 mm/min. The average maximum force to continue tearing is recorded. |
| Equipment: | Universal Tensile Tester (force range 0‑100 N, accuracy ±1%). Tear test fixture.
|
| Performance Levels: | Levels 1-4 based on force (Newtons): 1: 10N ≤ force < 25N 2: 25N ≤ force < 50N 3: 50N ≤ force < 75N 4: force ≥ 75N |
| Principle: | Resistance to crack propagation from initial damage. |
| Specimen: | A "trouser-shaped" specimen with a pre-cut nick.
|
| 4. Puncture Resistance Test (Blunt Probe) | |
| Method: | As per EN 863. A steel blunt conical probe (1mm tip, 4.5mm diameter, 30° cone) is driven through the specimen at 100 mm/min. The maximum force is recorded.
|
| Equipment: | Tensile testing machine with EN 863 fixture and probe. clamping ring (≥45 mm ID).
|
| Performance Levels: | Levels 1-4 based on force (Newtons): 1: 20N ≤ force < 60N 2: 60N ≤ force < 100N 3: 100N ≤ force < 150N 4: force ≥ 150N |
| Principle: | Resistance to blunt puncture (e.g., nails, metal shavings). |
| Specimen: | A or round , flat sample from the palm. the diameter should large than 40mm. |
| 5, Optional Impact Protection (EN 13594) | |
| Method: | Weight (5 kg, 500 mm drop) impacts back‑of‑hand protector; transmitted force measured. |
| Equipment: | Drop tester with a standardized striker and force sensor. |
| Performance Levels: | “P” indicates gloves reduce impact force to ≤7 kN. No “P” = untested . |
| Principle: | Weight (5 kg, 500 mm drop) impacts back‑of‑hand protector; transmitted force measured. |
| Specimen: | The complete glove, mounted on a hand-shaped last. |
Test Application:
EN 388 applies to all types of gloves where mechanical risks are the primary concern, including:
General-purpose work gloves (e.g., for construction, warehousing).
Specialized cut-resistant gloves (e.g., for metal handling, glass, food processing).
Gloves for mechanics and assembly workers.
Related standard of EN 388:
| Standard | Relationship | Key Difference |
|---|---|---|
| EN 863 | Complementary: Puncture resistance (sharp spike) | EN 863 uses sharp spike; EN 388 uses blunt probe |
| ISO 13997 | Normative reference: Linear cut test | Mandatory for high‑performance cut materials in EN 388 |
| EN 407 | Thermal protection; references EN 388 for mechanical tests | EN 407 adds flame, contact heat protection |
| EN 455 | Medical gloves; EN 388 used for material qualification | EN 455 focuses on biocompatibility, barrier properties |
| ASTM F2992 | US equivalent: Linear cut test for gloves | ASTM uses different blade geometry; EN 388 is European harmonized |
| EN 13594 | Optional impact protection; referenced in EN 388:2016+A1 | Defines back‑of‑hand impact test method |
Importance for the Protective Gloves Industry:
Universal Benchmark & Common Language: It provides a globally recognized, objective framework for comparing the mechanical performance of gloves from any manufacturer. A Level 4 cut resistance means the same in Germany as it does in Japan.
Basis for Legal Sale (CE Marking): In the EU/UK and many other regions adopting similar conformity systems, EN 388 is a "harmonized standard." Passing its tests is the primary pathway for a glove manufacturer to affix the CE mark, which is a legal requirement for selling gloves as PPE. It demonstrates compliance with the essential health and safety requirements of the PPE Regulation (EU) 2016/425.
Drives Innovation & Quality: The quantified performance levels push manufacturers to develop and use better materials (e.g., high-performance fibers like HPPE, aramid, metal/composite threads) and superior construction techniques to achieve higher ratings.
Empowers Informed Selection: The simple pictogram allows safety managers, procurement officers, and end-users to match the glove's certified performance to the specific hazards of a task. This enables risk-based selection, moving beyond guesswork to data-driven safety.
Enhances User Trust & Safety: By providing clear, tested performance claims, it reduces the risk of under-protection. Workers can have greater confidence that their gloves will perform as expected against documented hazards, directly contributing to injury prevention.
Related products and device
Related Standard
EN 863 Protective clothing Mechanical properties Test method: Puncture resistance
EN 863 specifies a test method for determining the puncture resistance of materials used in protective clothing and their assemblies (e.g., seams). Expressed as the maximum force (in Newtons) needed to push a standard spike through specimens at a defined speed. It is a foundational mechanical test for PPE (Personal Protective Equipment) compliance, widely used in industrial, medical, and occupational safety sectors.
EN 388:2016+A1:2018 – Protective gloves against mechanical risks, a cornerstone standard in the global PPE industry.
EN 388 is a type testing and performance classification standard for gloves designed to protect against physical and mechanical hazards such as abrasion, cut, tear, and puncture. Its principle is to subject glove samples to a series of standardized laboratory tests, each generating a numerical performance level.
ASTM D6797 is a standard test method for measuring the bursting strength of woven and knitted textiles using a constant-rate-of-extension (CRE) tensile tester with a ball burst fixture, providing precise, repeatable data for fabric performance evaluation, quality control, and compliance, essential for validating high-elongation textiles in real-world applications.
ASTM D6797 titled "Test Method for Bursting Strength of Fabrics Constant-Rate-of-Extension (CRE) Ball Burst Test." While similar in name to ASTM D3787, it has a distinct focus and methodology.
ASTM D3787 Standard Test Method for Bursting Strength of Textiles;Constant-Rate-of-Traverse (CRT) Ball Burst Test.
ASTM D3787 is a standard test method for measuring the bursting strength of high-elongation textiles via a constant-rate-of-traverse (CRT) ball burst setup, providing repeatable data for material selection, quality control, and compliance, critical for ensuring fabric performance in end-use scenarios.
ISO 12236 puncture test (CBR test) is the principal international standard for measuring the static puncture resistance of geosynthetics using a 50-mm plunger. Its results are a key indicator of a material's performance in applications requiring resistance to localized, sustained pressure.
ASTM D4595 Standard Test Method for Tensile Properties of Geotextiles by the Wide-Width Method
ASTM D4595 covers the measurement of tensile properties of geotextiles using a wide-width strip specimen tensile method. This test method is applicable to most geotextiles that include woven fabrics, nonwoven fabrics, layered fabrics, knit fabrics, and felts that are used for geotextile application.
ASTM D4533 test used to measure the force required to continue or propagate tearing in woven or non-woven geotextiles, using the trapezoidal method for testing. The trapezoidal tearing method is a test that generates tension along a reasonably defined path, allowing the tear to propagate across the width of the specimen. The trapezoidal tear strength of woven fabrics is mainly determined by the characteristics of the yarns clamped in the fixture.
ISO 10319: Geosynthetics -- Wide-width tensile test
ISO 10319 describes an index test method for the determination of the tensile properties of geosynthetics (polymeric, glass, and metallic), using a wide-width strip. It is applicable to most geosynthetics, including woven geotextiles, nonwoven geotextiles, geocomposites, knitted geotextiles, geonets, geomats, and metallic products. It is also applicable to geogrids and similar open-structure geotextiles, but specimen dimensions might need to be altered. It is not applicable to polymeric or bituminous geosynthetic barriers, while it is applicable to clay geosynthetic barriers.
ISO 10319 specifies a tensile test method that covers the measurement of load elongation characteristics and includes procedures for the calculation of secant stiffness, maximum load per unit width and strain at maximum load. Singular points on the load-extension curve are also indicated.
ISO 13426-1:2019 Geotextiles and geotextile-related products — Strength of internal structural junctions — Part 1: Geocells
ISO 13426-1 test describes index test methods for the determination of the strength of internal structural junctions of geocells under different loading conditions.
Splitting test procedure:
All test methods are performed at a constant strain rate of 20 mm/min.
At the beginning of the test, adjust the distance between the jaws to ±3mm of the required specimen length.
The specimen is mounted in the center of the jaws. Note that the length of the specimen should be parallel to the direction of the force.
Start the pull machine and continue until the sample is destroyed. Stop the device, record and report the maximum load with an accuracy of 2% of the full-scale reading. Reports the corresponding displacement in millimeters, with one decimal place reserved.
ISO 12956:2019 Geotextiles and geotextile-related products — Determination of the characteristic opening size
ISO 12956 specifies a method for the determination of the characteristic size of the openings of a single layer of a geotextile or geotextile-related product using the wet-sieving principle.
ISO 12956 wet-sieving method geotextile opening size test machine Test principle: With the untensioned single-layer geotextile and its related product samples as a screen, under the specified vibration frequency and amplitude, the sample and graded granular material are sprayed with water, so that the granular graded material passes through the sample. The effective pore size of the specimen is indicated by the passing particle material and the specific particle size.
ISO 11058 test specifies two test methods for the water permeability characteristics of a single layer of geotextile or geotextile-related product normal to the plane: the constant head method; and the falling head method.
ISO 11058:2019 Geotextiles and geotextile-related products — Determination of water permeability characteristics normal to the plane, without load.
Water Flow through a Geotextile: Measuring Perpendicular Water Flow and Permittivity
Require More Customized Solutions?