Glove performances supported by test standards & methods
Reusable work gloves | Neutral guidance for buyers and safety programs
Quick takeaways: Use EN/ANSI ratings for comparison, confirm the test method and conditions, and validate with a short field trial.
Standards and test methods help you compare reusable work gloves in a consistent, audit-friendly way. They do not replicate every workplace condition, so the best approach is standards data + task context + a short trial.
Why standards matter
They create repeatable tests, reduce guesswork, and provide documentation for EHS programs. To keep comparisons fair, always check that products were evaluated under the same method and conditions.
Core mechanical protection
Two common frameworks are EN 388 (widely used globally) and ANSI/ISEA 105 (widely used in North America).
EN 388 (Mechanical risks): typically reports abrasion, tear, puncture, and cut performance (may include ISO 13997/TDM for higher-cut materials), plus optional impact marking when tested.
Use ISO 13997/TDM cut results when sharp-edge risk is high; confirm whether ratings apply to the palm, liner, or full glove.
For high-abrasion work, abrasion resistance and coating durability usually drive service life.
ANSI/ISEA 105: commonly reports cut levels (A1-A9), abrasion, puncture, and (when applicable) impact classifications.
Confirm the cut test method used and whether results represent the coated palm, the liner, or both.
Ergonomics and user information
EN ISO 21420 supports consistent marking, sizing guidance, and user information. For dexterity-critical tasks, pair standards data with a simple handling trial (small parts, tool use, fatigue feedback).
Task-specific standards (when relevant)
Heat and flame (EN 407): Match the rating type to the hazard (contact vs radiant vs molten splash).
Cold environments (EN 511): Cold affects dexterity and safety, not just comfort.
Electrostatic properties (EN 16350): Ask for the referenced standard and stated test conditions.
Chemical splash/handling (task-dependent): Use chemical list, concentration, temperature, and time tested; request method transparency.
Grip and durability: ask for method transparency
Grip is a major real-world driver of safety and productivity, but it is not always expressed as a universal rating. For grip claims, ask what surface was used, what contaminant was present (water/oil), how slip was measured, and whether testing included conditioning (wear/cleaning). For reusable gloves, durability is best discussed as performance retention over time, not just the initial rating.
Common pitfalls to avoid
Comparing ratings that were produced using different test methods or conditions.
Assuming a palm rating applies to the entire glove (or ignoring back-of-hand exposure).
Ignoring conditioning effects (washing, aging, wear) when selecting reusable gloves.
Buyer checklist
Before approving a glove for a program, confirm the points below:
Which standard(s) were used (EN 388, ANSI/ISEA 105, EN 407, EN 511, EN 16350, etc.)? | What is the full marking code and what does each value represent? |
What cut method was used (e.g., ISO 13997/TDM or the method required by your program)? | Do results apply to the coated palm only or the full glove? |
Were gloves conditioned (after aging, after washing, after pre-wear) before testing? | For grip claims: what were the exact test conditions and surfaces? |
Bottom line: standards-backed data helps you compare gloves confidently, but the most defensible decisions pair those results with the real task context and a short, controlled trial.