EN 388:2016 Explained: Safety Gloves Testing And Rating

• EN 388:2016 is the European standard for mechanical risk ratings for safety gloves, helping compare real protection levels using tested data instead of product claims. 
• An EN 388 glove rating measures abrasion, cut, tear, and puncture resistance, with some gloves also including impact protection (P rating).
• The 2016 update introduced the ISO 13997 cut test, which gives more accurate cut resistance results for modern high-performance materials.
• A higher rating in one category does not mean a better overall glove. The best work glove depends on the specific hazard and task.
• EN 388 ratings should be used as a guide, not the only factor. Fit, grip, comfort, and working conditions all affect real-world safety.

EN 388:2016 is the European testing standard used to evaluate protective gloves against mechanical risks. It focuses on how well gloves perform when exposed to physical hazards commonly found in real work environments.

These hazards include abrasion, blade cuts, tearing, and punctures, with some gloves also tested for impact protection. Each category is measured separately to give a clearer picture of glove performance.

For buyers and workers, EN 388 glove ratings make it easier to compare products using standardized data instead of relying on marketing claims. This is why the standard is widely used across industries like construction, manufacturing, and warehousing.

EN 388:2016 focuses specifically on mechanical risks, meaning physical hazards that can damage gloves or cause hand injuries during everyday tasks.

The standard evaluates abrasion resistance, which measures how well gloves hold up against repeated friction. This is important for jobs involving rough surfaces or continuous handling. It also measures cut resistance, which shows how easily a blade can slice through the glove material under controlled conditions.

Additional categories include tear resistance, which reflects how much force is needed to rip the glove, and puncture resistance, which measures protection against sharp objects like nails or splinters. Some gloves also include impact protection, designed to reduce force from blows to the back of the hand in high-risk environments.

The numbers and letters in EN 388:2016 represent specific performance results from standardized tests. They are designed to show how well a glove protects against different mechanical risks, not how comfortable or flexible it is.

Each part of the rating reflects a separate test category, which is why it is important to look at the full code rather than focusing on a single number or letter.

Understanding these values helps buyers choose protective gloves that match the actual hazards of the job instead of relying on assumptions based on thickness or appearance.

The first number is the abrasion resistance rating, which measures how many cycles a glove can withstand before the material wears through during testing. 

The range is 1-4, and a higher score means better durability under repeated friction:

• 0: <100 turns
• 1: 100 turns
• 2: 500 turns
• 3: 2000 turns
• 4: 8000 turns

This is especially important for jobs involving rough surfaces, heavy handling, or repetitive movements where gloves are exposed to constant wear. 

Choosing gloves with strong abrasion resistance can improve both safety and product lifespan in demanding work environments.

The puncture resistance is the last numeric rating and measures how much force is needed to push a sharp object through the glove material. It is also measured in Newtons on a scale from 1-4: 

• 0: <20 N
• 1: 20 N
• 2: 60 N
• 3: 100 N
• 4: 150 N

This is particularly important for tasks involving nails, metal fragments, splinters, or other pointed hazards.

It is important to remember that high cut resistance does not always mean high puncture resistance, as these are tested separately.

The A to F letter rating comes from the ISO 13997 cut test, more commonly known as the TDM (Trouser-Dick-Meyer) test, which measures the force required for a straight blade to cut through the glove material.

A rating of A indicates lower protection, while F represents the highest level of cut resistance:

• A: ≥2 N
• B: ≥5 N
• C: ≥10 N
• D: ≥15 N
• E: ≥22 N
• F: ≥30 N

For jobs involving sharp materials like glass or sheet metal, this rating is often the most important factor to consider.

The P rating of the EN 388 standard indicates that the glove has passed EN 13594 impact protection testing. It is an optional pass/fail test, not a scale or range, and may not appear on all gloves.

This protection is typically found in gloves used for heavy-duty work, where the back of the hand is exposed to impact risks.

If the P marking is absent, the glove either was not tested or did not meet the standard.

When a glove shows an X in its rating (for example, 4X43F), it means that the corresponding test (in this case, the Coup cut test) was not performed or not applicable, not that the glove failed. 

The ratings are always listed in this specific order, even if some tests weren’t conducted, so that anyone can quickly and correctly assess a glove’s protection without ambiguity. In this example, the glove’s abrasion resistance is 4, tear resistance is 4, puncture resistance is 3, and the TDM cut test rating is F.

The update to EN 388:2016 was introduced because the older blade test could produce inaccurate results when used on modern cut-resistant materials. Some high-performance fibers can dull the blade during testing, making gloves appear more resistant than they actually are.

To fix this, the ISO 13997 (or TDM) test was added, which measures the force required to cut through the material using a straight blade. This change made EN 388 glove ratings more reliable and better suited for evaluating real-world cut protection.

EN 388:2016 evaluates multiple mechanical risks, including abrasion, tear, puncture, and sometimes impact, in addition to cut resistance.

ANSI 105 cut ratings, commonly used in the United States, focus primarily on cut resistance and do not provide the same multi-risk overview. Because of this, the two systems are not directly comparable, even though they may both measure aspects of glove safety.

In addition, ANSI 138 is a separate standard that focuses on back-of-hand impact protection. It rates gloves from Level 1 to Level 3 based on how much force they absorb (measured in kilonewtons), offering a more detailed scale compared to the pass/fail impact test used in EN 388.

When selecting safety gloves, it is important to understand what each standard measures rather than trying to match them directly.

Choosing the right gloves starts with identifying the main hazard in your work environment. Different tasks require different types of mechanical protection.

For rough materials, prioritize abrasion resistance. For sharp edges, focus on cut resistance, especially the TDM letter rating. For sharp debris, consider puncture resistance. It is also important to consider dexterity, grip, and overall comfort, as these affect how safely the glove can be used in practice.

The best approach is to use EN 388 ratings as a guide while also considering real working conditions.

The best safety gloves depend on the specific task and the type of hazard involved.

• For light-duty work, gloves with moderate abrasion resistance and good flexibility are often the best choice.
• For tasks involving sharp materials, gloves with higher cut resistance, especially strong letter ratings, are more suitable.
• For construction or heavy-duty work, gloves with strong abrasion, tear, and puncture resistance are typically more effective.
• In high-impact environments, gloves with impact protection may also be necessary.

EN 388:2016 provides a clear and standardized way to evaluate mechanical risk ratings for safety gloves, helping users make informed decisions. It measures key hazards like abrasion, cutting, tearing, and puncturing, along with optional impact protection.

The most important thing to remember is that no single rating tells the full story. The best glove depends on the specific task and working conditions.