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EN 388

PPE Standards Reference

EN 388 Explained: Mechanical Risk Protection for Safety Gloves

Understand how EN 388 ratings measure abrasion, cut, tear, puncture and impact protection—and how to choose gloves for mechanical hazards.

Mechanical Protection Buyer Guide Industrial PPE

EN 388 is the European standard used to assess protective gloves against mechanical risks such as abrasion, blade cuts, tearing and puncture. It also includes a separate impact-protection assessment where applicable. The standard helps buyers compare tested glove performance, but a rating is not a guarantee that a glove is suitable for every workplace hazard.

Quick answer

EN 388 ratings tell you how a glove performed in specific mechanical-resistance tests. Read the complete marking—not just one number—and match it to the actual hazard, fit, dexterity and other protection requirements.

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Standards note

ISO 23388:2018 is the published international standard for protective gloves against mechanical risks. Its ISO page currently identifies a revision as under development. EN 388:2016+A1:2018 is the European marking framework discussed in this article; buyers should confirm the edition and applicable conformity requirements for their market.

IMAGE 1 — EN 388 mechanical-risk pictogram
Recommended visual: glove + EN 388 pictogram + illustrative marking
Suggested image: A clean technical illustration of an industrial glove with the EN 388 pictogram beside an illustrative marking.
ALT: EN 388 mechanical risk pictogram and example glove performance marking.

What Does EN 388 Mean?

EN 388 is a European standard for protective gloves against mechanical risks. It evaluates four traditional mechanical properties—abrasion, blade cut, tear and puncture—and adds a separate ISO cut-resistance result and an optional impact-protection result in the current marking format.

The marking is normally shown as:

Illustrative EN 388 marking
4 3 4 3 C P
Abrasion Blade Cut Tear Puncture ISO Cut Impact
Position Property What it measures
1 Abrasion Resistance to wear through the glove
2 Blade cut Resistance to a specified blade-cut test
3 Tear Force required to tear the material
4 Puncture Force required to pierce the material
5 ISO cut Resistance measured by the TDM cut test
6 Impact Optional impact-protection result, shown as P when passed

The first four positions use numerical performance levels. The ISO cut result uses letters A–F, and impact protection is marked P when the applicable test is passed.

IMAGE 2 — Six-position EN 388 rating code
Suggested image: A horizontal EN 388 marking with six numbered segments and short labels underneath.
ALT: Six positions of the EN 388 glove mechanical protection marking.

How EN 388 Tests Work

The tests measure specific mechanical performance properties under defined laboratory conditions. A higher result does not mean the glove provides universal protection; it means the glove performed at a higher level for that particular test.

Abrasion Resistance

Abrasion resistance measures how much wear a glove sample can withstand before it is abraded through. Under EN 388, the result is expressed as a performance level based on the number of abrasion cycles required.

Abrasion is relevant where gloves repeatedly contact rough surfaces, tools or materials. Examples include handling, assembly, material movement and general industrial work.

What the rating tells you: Relative resistance to the specified abrasion test.

What it does not tell you: How long the glove will last in every workplace, or whether it will withstand a particular chemical, heat or sharp-edge hazard.

Blade Cut Resistance

The blade-cut test measures resistance to cutting with a specified blade under defined test conditions. The result is expressed as a numerical level in the first four rating positions.

Blade-cut performance matters when workers handle sharp materials or edges. However, the standard also uses a separate ISO cut test, which is particularly important when the blade becomes dull during testing.

Tear Resistance

Tear resistance measures the force required to tear the glove sample. It is expressed as a numerical performance level.

A tear-resistant glove may be useful where material can catch, snag or be pulled during handling. Tear resistance should not be confused with puncture or cut resistance: a glove can perform differently across these separate tests.

Puncture Resistance

Puncture resistance measures the force required to pierce a glove sample with a standard-sized point. The result is reported as a numerical performance level.

Puncture performance can be relevant to handling tasks involving pointed materials. It should not be treated as proof of protection against every needle, nail, thorn or other sharp object, because real hazards vary in shape, force and direction.

ISO Cut Resistance

The ISO cut test measures the force required to cut through a sample using a specified TDM cut-testing machine under defined conditions. Results are expressed as levels A–F.

The ISO cut result is important when the standard’s specified conditions require it. In particular, the TDM test becomes the reference for cut resistance when the blade-cut test is affected by blade dulling.

Impact Protection

Impact protection is an optional EN 388 assessment. A glove that passes the applicable impact test is marked P. No impact letter is shown when the result does not qualify for that marking.

Impact protection is not the same as cut resistance. A glove can have good cut performance without being an impact-protection glove.

IMAGE 3 — Impact vs. cut protection
Suggested image: A technical glove illustration highlighting the back-of-hand impact zone and a separate blade-cut symbol.
ALT: Difference between EN 388 impact protection and cut resistance on safety gloves.

Understanding EN 388 Ratings

Numerical Levels: Abrasion, Blade Cut, Tear and Puncture

The numerical ratings for the first four properties are based on defined test performance. The following table shows the levels commonly used in the EN 388:2016+A1:2018 marking framework.

Property Test result Levels
Abrasion Cycles to abrasion through 1: 100 · 2: 500 · 3: 2,000 · 4: 8,000
Blade cut Coupe test index 1: 1.2 · 2: 2.5 · 3: 5.0 · 4: 10.0 · 5: 20.0
Tear Force in newtons 1: 10 · 2: 25 · 3: 50 · 4: 75
Puncture Force in newtons 1: 20 · 2: 60 · 3: 100 · 4: 150

The first four positions do not use A–F. The values above describe the test thresholds for the numbered levels, not a guarantee of real-world performance.

ISO Cut Levels: A–F

The fifth position uses the ISO cut-resistance scale:

Level Test force
A2 N
B5 N
C10 N
D15 N
E22 N
F30 N

These are the EN 388 marking thresholds for the ISO cut test. They should not be confused with the numerical blade-cut index in the second position.

What Does X Mean?

X may appear for a property when the test was not performed or is not applicable under the marking framework. It should not be interpreted as a high or low performance rating.

What Does 4X43C Mean?

It indicates that the glove has numerical performance results for abrasion, blade cut, tear and puncture, with X in the blade-cut position and C for ISO cut resistance. The exact result must be read from the complete marking and supporting product information.

What Does P Mean?

P indicates that the glove passed the applicable EN 388 impact-protection test.

Why the EN 388 Pictogram Matters

The EN 388 mechanical-risk pictogram provides a compact way to identify the properties assessed under the standard. It is useful for comparing products, but it should be read alongside the complete marking, product instructions and intended application.

A glove’s EN 388 marking should be treated as one part of a selection decision—not as a substitute for hazard assessment, fit, comfort or compatibility with the work environment.

What EN 388 Does Not Cover

EN 388 focuses on mechanical risks. It does not establish that a glove is suitable for every other hazard.

Depending on the application, buyers may need to consider:

  • Chemicals: Whether the glove is suitable for the specific chemical and exposure conditions.
  • Heat or cold: Whether the glove is designed and assessed for the relevant temperature hazard.
  • Electrical hazards: Whether the glove is specifically designed and tested for electrical protection.
  • Biological hazards: Whether the glove’s construction and intended use meet the relevant requirements.
  • Fit and dexterity: Whether the glove allows the wearer to perform the task safely.
  • Durability in actual use: Whether the glove’s material, seams and construction suit the work.

EN 388 results alone cannot establish suitability for these other hazards. Buyers should use the applicable standards, product instructions and supplier documentation for the specific application.

IMAGE 4 — Mechanical hazards and other PPE requirements
Suggested image: A hazard-to-information diagram showing mechanical risks at the center and separate branches for other protection needs.
ALT: Mechanical hazards and other safety glove selection considerations.

EN 388 vs. ISO 23388

EN 388 is the European marking framework for mechanical-risk protective gloves. ISO 23388:2018 is the international standard that specifies requirements, test methods, marking and information for protective gloves against mechanical risks.

The relationship is important for international buyers: the two standards address the same broad mechanical-risk subject, but buyers should not assume that a marking under one framework automatically proves conformity with every other market’s requirements. Confirm the applicable standard, edition and conformity documentation for the destination market.

EN 388 Product Examples

EN 388 is relevant to many types of industrial protective gloves. The appropriate choice depends on the hazards, the work being performed and the complete product specifications.

Application Mechanical risks to consider
General material handling Abrasion, tear, puncture
Assembly and manufacturing Abrasion, blade cut, dexterity
Metal handling Blade cut, abrasion, puncture
Construction and maintenance Abrasion, tear, impact where applicable
Industrial packaging Abrasion, tear, puncture

These are application examples, not universal glove recommendations. A product should be selected using the actual task risk assessment and the glove’s documented performance.

IMAGE 5 — Industrial safety glove examples
Suggested image: A realistic professional comparison of general handling, cut-resistant, impact-protection and reinforced work gloves.
ALT: Industrial safety glove examples for different mechanical work applications.

Buyer Checklist: How to Choose EN 388 Gloves

Before purchasing, review the glove’s actual marking and documentation rather than choosing by a single number.

  • Identify the hazard: What can damage the glove—rough surfaces, sharp edges, tearing, puncture or impact?
  • Match the property: Select the rating that addresses the specific risk.
  • Read all six positions: Do not focus only on abrasion or cut.
  • Check the ISO cut result: Understand whether the TDM result is the relevant cut assessment.
  • Look for impact protection: Confirm whether P is present when impact protection is required.
  • Check other standards: Mechanical protection may not cover chemical, thermal or electrical risks.
  • Confirm fit and dexterity: A glove that is difficult to use may not be suitable for the task.
  • Review product instructions: Follow the manufacturer’s intended-use and limitation information.
  • Request documentation: For regulated PPE, obtain the relevant conformity and performance documentation.
  • Use the correct application: Do not assume that a high rating means the glove is appropriate for every job.

Why Manufacturing Expertise Matters

For B2B buyers, EN 388 performance should be considered alongside the manufacturer’s ability to maintain consistent product specifications and provide accurate technical documentation.


Protekta Gloves is a Sialkot-based industrial safety glove manufacturer serving OEM, ODM, private-label and wholesale customers. Its relevant manufacturing context includes glove construction, material selection, sampling, quality assurance and production. Where a specific product is being evaluated, buyers should request the applicable EN 388 marking, test documentation and product specifications rather than relying on a general statement about manufacturing capability.

Frequently Asked Questions

What is EN 388 used for?

EN 388 is used to assess protective gloves against mechanical risks, including abrasion, blade cuts, tearing and puncture. The marking also includes an ISO cut result and an optional impact-protection result in the current format.

What do the numbers on an EN 388 glove mean?

The first four numbers represent abrasion, blade cut, tear and puncture performance. They are followed by an ISO cut-resistance letter and, where applicable, an impact-protection letter.

Is a higher EN 388 rating always better?

A higher rating indicates stronger performance in that specific test. It does not automatically mean the glove is better for every application, because other hazards, fit, dexterity and limitations also matter.

What does EN 388 level A mean?

A is the lowest level on the ISO cut-resistance scale. It represents the specified minimum force threshold for that test, not the absence of protection or a guarantee of suitability for a particular task.

What does EN 388 level F mean?

F is the highest level on the ISO cut-resistance scale in the EN 388 marking framework. It represents the specified highest force threshold for that test; it does not mean the glove is resistant to every type of sharp object.

What does P mean on EN 388 gloves?

P means the glove passed the applicable impact-protection test. Impact protection is a separate property from abrasion, cut, tear and puncture resistance.

What does X mean in an EN 388 rating?

X indicates that the relevant property was not tested or is not applicable under the marking framework. It is not a performance level.

Does EN 388 cover chemical protection?

No. EN 388 addresses mechanical risks. Chemical protection requires the applicable chemical-protection requirements and suitability for the specific chemical and exposure conditions.

Can EN 388 ratings be used to compare all safety gloves?

They can help compare mechanical-risk performance, but a complete comparison also requires the intended application, materials, fit, other applicable standards and product documentation.

Does ISO 23388 replace EN 388?

ISO 23388:2018 is the international mechanical-risk standard, while EN 388 is the European marking framework. Buyers should confirm which standard and edition apply to the product and destination market.

Sources & References

  • ISO 23388:2018 — International standard for protective gloves against mechanical risks.
  • ISO/CD 23388 — Current ISO revision status.
  • Ansell PPE Standards Guide — Overview of EN 388 mechanical protection and rating positions.
  • EN 388 Quick Reference Poster — Test thresholds and changes to cut and impact testing.
  • Ansell Mechanical Protection Instructions for Use — Explanation of EN 388 markings and pictograms.