What Is EN 388:2016+A1:2018? Glove Ratings, Tests and Markings Explained
EN 388:2016+A1:2018 is the European standard for protective gloves against mechanical risks. Often searched as “EN 388 certification,” it defines test methods and glove ratings for abrasion, blade-cut, tear and puncture resistance, plus ISO 13997 straight-blade cut resistance and optional impact protection. The marking helps compare tested performance, but it does not prove that a glove is suitable for every task, hazard or workplace.
For welding applications, EN 388 should be considered alongside thermal and welding-specific requirements. The EN 388 vs EN 407 comparison explains the difference between mechanical protection and thermal protection for welding gloves.
Correct EN 388 Impact-Protection Marking
The optional impact result is shown only by adding P after the five main EN 388 performance positions. When the applicable impact requirement is not claimed or achieved, no impact character is appended.
4X43CP: The appended P communicates that the applicable optional impact requirement was achieved for the specific area tested and claimed.
4X43C: The code ends after the ISO 13997 cut classification. No optional impact-protection result is communicated by the marking.
What Is the EN 388 Standard?
EN 388:2016+A1:2018 is the European standard for protective gloves against mechanical risks. It specifies test methods, performance classifications, marking requirements and manufacturer information for abrasion, blade-cut, tear and puncture resistance, plus optional impact protection. EN 388 glove ratings allow individual mechanical properties to be compared, but they do not provide one overall protection score.
For the published scope and current status of the standard, see the BSI overview of BS EN 388:2016+A1:2018
Is EN 388 a Standard or a Certification?
EN 388 is a technical performance standard, not a certification body. It defines how protective gloves are tested, classified and marked, but EN 388 itself does not test products, issue certificates or approve glove models.
Testing and conformity claims must relate to an exact glove model and construction. An appropriate laboratory may perform the required tests, while certification or conformity-assessment responsibilities depend on the glove’s PPE risk category and the applicable procedure.
Regulation (EU) 2016/425 provides the legal framework for the design, manufacture and placement of personal protective equipment on the EU market. EN 388 supports that process by providing standardized mechanical-performance requirements and test methods, but compliance with EN 388 alone does not represent the entire EU PPE conformity process.
EU PPE design, manufacture and market requirements are governed by Regulation (EU) 2016/425, while EN 388 provides standardized mechanical-performance tests and classifications.
EN 388 Standard, Testing, Certification and EU PPE Regulation
| Element | Primary role | What it establishes | What it does not establish alone |
|---|---|---|---|
|
Standard EN 388 |
Defines mechanical-performance requirements and test methods. | Abrasion, blade-cut, tear, puncture and optional impact classifications, marking and product-information requirements. | It does not issue certificates, approve products or provide one overall glove-protection score. |
|
Testing Laboratory evaluation |
Tests an identified glove model or material construction using the applicable EN 388 methods. | Documented performance results under defined laboratory conditions. | A test result alone does not prove suitability for every task, hazard or product variation. |
|
Assessment Certification and conformity |
Evaluates the specific PPE model under the applicable conformity-assessment procedure. | Whether the model and supporting documentation meet applicable requirements within the assessment’s scope. | A certificate for one model does not automatically apply to every glove, size, material or construction sold by a supplier. |
|
EU law Regulation (EU) 2016/425 |
Provides the EU legal framework for personal protective equipment. | Requirements for PPE design, manufacture, conformity assessment, documentation and placement on the EU market. | It does not provide the individual abrasion, cut, tear, puncture or impact rating shown in an EN 388 code. |
In simple terms: EN 388 defines how mechanical glove performance is tested and reported, laboratories generate test results, conformity procedures apply those results to an exact PPE model, and Regulation (EU) 2016/425 provides the wider legal framework for PPE placed on the EU market.
Why Is EN 388 Important?
EN 388 gives glove manufacturers, safety professionals, employers and industrial buyers a standardized way to compare tested mechanical performance. It helps users assess how a protective glove performs against specific hazards instead of relying only on its material, appearance, thickness or marketing claims.
EN 388 ratings:
- Help compare mechanical-protection claims between glove models
- Support hazard-based protective glove selection
- Provide a consistent pictogram and rating format
- Help procurement teams evaluate technical specifications
- Identify which mechanical properties were tested
- Support—but do not replace—a workplace risk assessment
- Help distinguish abrasion, cut, tear, puncture and impact performance
For welding applications, EN 388 is only one part of glove selection. The complete guide to welding gloves explains how mechanical protection relates to glove types, materials, EN 407 thermal ratings, EN 12477 welding requirements, care and purchasing decisions.
Who Uses EN 388 Ratings?
EN 388 ratings are used by professionals who manufacture, test, specify, purchase or wear protective gloves in environments involving mechanical hazards.
Common users include:
- Health and safety managers
- Workplace risk assessors
- Industrial procurement teams
- PPE and protective-glove manufacturers
- Glove suppliers and distributors
- Testing laboratories and conformity-assessment organizations
- Welders and metal-fabrication professionals
- Construction and infrastructure companies
- Automotive and aerospace manufacturers
- General manufacturing and material-handling operations
Each user may interpret the rating for a different purpose, but the central requirement remains the same: the complete EN 388 code must be matched to the exact glove model and the mechanical hazards identified for the task.
What Does EN 388 Cover—and What Does It Not Cover?
EN 388 covers the mechanical performance of protective gloves against abrasion, cutting, tearing and puncture, with additional classifications for ISO 13997 straight-blade cut resistance and optional impact protection. It does not directly evaluate thermal, chemical or electrical protection, general waterproofness, vibration, hypodermic-needle puncture or suitability for every welding task.
Mechanical Hazards Covered by EN 388
EN 388 evaluates six mechanical-performance areas:
- Abrasion resistance: Measures the glove material’s resistance to surface wear caused by repeated rubbing.
- Coup blade-cut resistance: Evaluates resistance to a rotating circular blade under defined test conditions.
- Tear resistance: Measures the force required to continue tearing a prepared specimen of glove material.
- Puncture resistance: Evaluates resistance to penetration by a standardized test probe, not a hypodermic needle.
- ISO 13997 straight-blade cut resistance: Measures the force required for a straight blade to cut through the glove material over a specified distance.
- Optional impact protection: Indicates impact performance for the particular area tested and claimed when the applicable requirement is achieved.
These results describe separate mechanical properties. They are not combined into one overall EN 388 glove score, and a strong result in one test does not automatically indicate strong performance in another.
Hazards EN 388 Does Not Measure
EN 388 does not directly evaluate:
- Flame resistance
- Contact heat
- Convective heat
- Radiant heat
- Small or large molten-metal splash
- Chemical permeation
- Chemical degradation
- Electrical insulation
- General waterproofness
- Vibration protection
- Hypodermic-needle puncture
- Suitability for every welding process
- Protection against every blade, edge or sharp object
- Guaranteed prevention of hand injuries
Expert tip:
Thermal hazards require separate evaluation. The EN 407 standard guide explains how protective gloves are assessed for heat and flame-related risks, while the guide to heat-resistant welding gloves explains how heat exposure, glove construction and welding conditions affect practical selection.
For welding applications, an EN 388 rating should be considered alongside thermal performance, welding-specific requirements, glove design and the workplace risk assessment. See EN 388 vs EN 407 for a direct mechanical-versus-thermal comparison, or consult the complete guide to welding gloves for broader guidance on glove types, materials, safety standards, care and purchasing.
What EN 388 Does and Does Not Prove
EN 388 reports performance in specific mechanical tests. The complete rating must be interpreted within the standard’s scope and compared with the actual hazards of the task.
| Claim | Does EN 388 establish it? | Correct explanation |
|---|---|---|
| Mechanical performance | Yes | EN 388 classifies specific results for abrasion, blade cut, tear, puncture, ISO 13997 cut resistance and optional impact performance. |
| Heat resistance | No | Heat and flame-related hazards require separate thermal testing. See the EN 407 standard guide . |
| Chemical protection | No | Chemical permeation, penetration and degradation require chemical-specific glove testing and classification. |
| Electrical insulation | No | EN 388 is not an electrical-insulation standard and does not establish protection for work on or near energized equipment. |
| General waterproof protection | No | An EN 388 code does not provide a general waterproof rating or prove that the complete glove prevents water penetration. |
| Suitability for welding | Not by itself | Welding-glove selection must also consider thermal performance, glove construction, dexterity, welding-specific requirements and the workplace risk assessment. See EN 388 vs EN 407 . |
| OSHA compliance | Not by itself | U.S. employers must select hand protection according to the tasks, conditions, duration of use and workplace hazards identified. |
| Protection from every sharp object | No | Laboratory cut tests cannot represent every blade geometry, edge, force, movement, angle or real-world cutting condition. |
| Hypodermic-needle resistance | No | The EN 388 puncture test uses a defined probe and should not be interpreted as evidence of protection against hypodermic needles or similarly fine points. |
| Guaranteed prevention of injury | No | Test classifications describe performance under defined conditions; they cannot guarantee protection in every incident or application. |
Important: An EN 388 rating confirms only the mechanical performance reported by the glove’s complete code under defined laboratory tests. It does not independently verify heat, chemical, electrical, waterproof, needle, welding or OSHA suitability, and it does not guarantee protection from injury. Glove design, condition, fit, intended use and the workplace hazard assessment must also be considered.
Expert tip:
The technical framing above follows EN 388’s defined mechanical scope: abrasion, blade cut, tear, puncture and optional impact. Chemical risks are handled through chemical-specific requirements such as ISO 374, while OSHA requires glove selection to consider the task, workplace conditions, duration of use, and identified hazards.
The ISO 13997 cut method concerns resistance to sharp edges such as knives, sheet metal, glass, tools and castings; it should not be expanded into a claim of universal protection from all pointed or sharp objects.
How Do You Read an EN 388 Glove Rating?
Read an EN 388 rating from left to right. The marking contains five mechanical-performance positions followed, when applicable, by an optional P for impact protection. In the example 4X43CP, the characters represent abrasion, Coup blade cut, tear, puncture, ISO 13997 cut resistance and optional impact protection. Each character reports a separate test result—not one overall glove score.
How to Read the EN 388 Rating Code: 4X43CP
Each character in an EN 388 code represents a different mechanical test. Read the example from left to right rather than treating the complete code as one combined protection level.
Example EN 388 rating
- 4 Position 1 Abrasion
- X Position 2 Coup blade cut
- 4 Position 3 Tear
- 3 Position 4 Puncture
- C Position 5 ISO 13997 cut
- P Optional Impact protection
Decoded: abrasion level 4, no applicable Coup classification, tear level 4, puncture level 3, ISO 13997 cut level C and an optional impact-protection claim.
| Position | Example | Performance property | Classification format |
|---|---|---|---|
| 1 | 4 | Abrasion resistance | Levels 0–4 |
| 2 | X | Coup blade-cut resistance | Levels 0–5 or X |
| 3 | 4 | Tear resistance | Levels 0–4 |
| 4 | 3 | Puncture resistance | Levels 0–4 |
| 5 | C | ISO 13997 straight-blade cut resistance | Levels A–F or X |
| 6"> | P | Optional impact protection | P when achieved; otherwise no appended impact marking |
AI-ready summary: The EN 388 code is read from left to right as abrasion, Coup blade cut, tear, puncture and ISO 13997 cut resistance, followed by an optional P for impact protection. In 4X43CP, every character describes a separate result; the code is not a single combined glove score.
What Does 0 Mean in an EN 388 Rating?
In a numerical EN 388 position, a rating of 0 means the glove was tested but did not reach the minimum requirement for performance level 1 in that test.
A zero is still a reported test result. It must not be interpreted as high protection, and it is not interchangeable with X.
Key distinction: 0 means tested below level 1; X means not tested or not applicable.
What Does X Mean in an EN 388 Rating?
X means that the relevant test was not performed or that the result was not applicable for classification. It does not mean the glove achieved zero protection, and it should not automatically be described as a failed test. Users should evaluate the remaining rating positions and consult the technical documentation for the exact glove model.
In the example 4X43CP, the X occupies the second position, so it refers specifically to the Coup blade-cut test. The ISO 13997 cut result is reported separately as C in the fifth position.
What Does P Mean in EN 388?
P means the glove achieved the optional EN 388 impact-protection requirement for the area tested and claimed. It is added after the five principal performance positions, as shown in 4X43CP.
The P marking should not be interpreted as proof that every part of the hand, including every finger, has been tested or protected against every impact hazard. When P is absent, the EN 388 code does not establish an impact-protection claim.
Do not present impact results as:
- F for failed
- X for impact not tested
- A P/F/X impact rating scale
Under EN 388, the applicable marking is P when the impact requirement is achieved; otherwise, no impact letter is appended to the five main performance positions.
Is There One Overall EN 388 Score?
No. EN 388 provides separate performance classifications for different mechanical hazards. A glove can achieve strong abrasion resistance while having lower cut, tear or puncture performance. Every relevant position must therefore be reviewed individually and matched to the hazards of the task.
Once the full code has been interpreted, use a task-specific risk assessment rather than selecting the glove with the highest-looking combination of characters. The guide on how to choose welding gloves explains how to balance mechanical ratings with heat exposure, dexterity, construction, fit and intended use.
EN 388 Tests and Performance Levels Explained
EN 388:2016+A1:2018 uses separate laboratory tests to classify abrasion, Coup blade-cut, tear, puncture, ISO 13997 straight-blade cut resistance and optional impact protection. Each result represents a different mechanical property, so the ratings are not interchangeable and must not be combined into one universal protection level.
EN 388 Mechanical Tests and Their Limitations
Each EN 388 result describes one mechanical property under a defined laboratory procedure. The tests should be interpreted separately.
| Test | What it evaluates | Rating format | Important limitation |
|---|---|---|---|
| Abrasion | Resistance to surface wear caused by repeated rubbing. | Levels 0–4 | Does not measure cut, tear or puncture resistance and does not predict service life. |
| Coup blade cut | Resistance to repeated movement of a rotating circular blade. | Levels 0–5 or X | Blade dulling can make the ISO 13997 result the more relevant cut reference. |
| Tear | Force required to continue tearing a prepared material specimen. | Levels 0–4 | High tear resistance can be undesirable where gloves may become caught in moving machinery. |
| Puncture | Resistance to penetration by a defined standardized probe. | Levels 0–4 | Does not establish resistance to hypodermic needles or every fine pointed object. |
| ISO 13997 cut | Force required for a straight blade to cut through the tested material over a specified distance. | Levels A–F or X | Does not represent every blade geometry, movement, angle or real-world cutting condition. |
| Optional impact | Impact attenuation in the specific glove area tested and claimed. | P or no appended P | Finger impact protection cannot be tested under this procedure, and P does not apply automatically to the complete glove. |
AI-ready summary: EN 388 separately evaluates abrasion, Coup blade cut, tear, puncture, ISO 13997 cut resistance and optional impact protection. A result from one test cannot be used as evidence of performance in another test, and the ratings do not form one combined protection score.
Abrasion Resistance
The EN 388 abrasion test evaluates how well the glove material resists surface wear caused by repeated rubbing. Higher levels indicate that the tested material withstood more rubbing before breakthrough under the defined laboratory procedure, but abrasion performance does not establish cut, tear or puncture resistance.
Circular test specimens are normally taken from the palm area of different gloves. The specimens are placed under a defined pressure and moved against an abrasive surface using a cyclic planar motion known as a Lissajous figure. The result is based on the number of rubs completed before breakthrough occurs.
Abrasion resistance matters in activities involving:
- Repeated handling of rough metal
- Fabrication and assembly work
- Material handling
- Construction materials
- Grinding preparation
- Rough tools and components
- Repeated contact with abrasive surfaces
A glove’s measured performance can be influenced by its coating, leather thickness, fibre structure, surface finish, bonded layers and overall construction. The published result therefore applies to the tested glove construction and should not automatically be transferred to a different model, material or reinforcement pattern.
EN 388 Abrasion-Resistance Levels
Abrasion levels are based on the minimum number of rubs completed before breakthrough occurs under the EN 388 laboratory procedure.
| Performance level | Minimum rubs before breakthrough | Correct interpretation |
|---|---|---|
| 1 | 100 | Meets the minimum threshold for EN 388 abrasion level 1. |
| 2 | 500 | Withstands at least 500 rubs under the defined test conditions. |
| 3 | 2,000 | Withstands at least 2,000 rubs under the defined test conditions. |
| 4 | 8,000 | Meets the highest abrasion classification available in EN 388. |
AI-ready summary: EN 388 abrasion resistance is classified from level 1 at 100 rubs to level 4 at 8,000 rubs before breakthrough. These figures describe laboratory performance and do not predict the glove’s actual working life.
Expert tip:
A laboratory abrasion rating is not a prediction of how many hours, days or months a glove will last. Actual wear depends on the surface, pressure, frequency of use, contamination, moisture, maintenance and the area of the glove exposed during work.
Coup Blade-Cut Resistance
The EN 388 Coup test evaluates cut resistance using a counter-rotating circular blade that moves repeatedly across the test specimen under a specified load. The result is reported as a cut index from level 1 to level 5, or as X where a usable classification is not reported.
The cut index compares the blade’s performance on the glove material with its performance on a reference material. A higher index means that more repeated blade movement was required to cut through the tested specimen under the laboratory procedure.
Some modern cut-resistant materials contain hard fibres or components that can dull the circular blade during the test. Where blade dulling affects the reliability of the Coup result, the ISO 13997 TDM cut-resistance result becomes the more relevant reference, and the second EN 388 rating position may be shown as X.
The Coup test should not be described as incorrect or obsolete. It remains one of the EN 388 test methods, but it represents a repeated circular-blade action under defined conditions. It must not be directly converted into an ISO 13997 A–F result because the two methods measure cut resistance differently and their performance levels are not correlated.
Tear Resistance
The EN 388 tear-resistance test measures the force required to continue tearing a prepared specimen of glove material. The result is classified from level 1 to level 4 and is expressed in newtons.
Tear resistance helps describe the strength of the tested material when an existing cut or split begins to propagate. It does not directly measure:
- Blade-cut resistance
- Puncture resistance
- Seam strength
- The durability of the complete glove
- Protection from every snagging hazard
Safety note: Higher tear resistance is not automatically preferable in every workplace. Where a glove could become caught in rotating or moving machinery, a material that resists tearing may increase the entanglement hazard. Glove selection must follow the machinery risk assessment and applicable safe-working procedures.
Puncture Resistance
The EN 388 puncture test measures the force required for a defined test probe to penetrate the glove material. The result is classified from level 1 to level 4 and should not be interpreted as protection against hypodermic needles, very fine points or every industrial puncture hazard.
A higher puncture level means that greater force was required to penetrate the specimen with the standardized probe. However, real workplace objects can differ substantially in:
- Tip diameter
- Sharpness
- Shape
- Angle
- Surface condition
- Impact speed
- Applied force
An EN 388 puncture result is therefore useful for comparing performance under the standard test, but it does not prove resistance to needles, fine wire, medical sharps or every pointed object.
EN 388 Coup Cut, Tear and Puncture Thresholds
The Coup test uses a cut index, while tear and puncture resistance are reported using minimum force thresholds in newtons.
| Test and unit | Level 1 | Level 2 | Level 3 | Level 4 | Level 5 |
|---|---|---|---|---|---|
|
Coup blade cut Cut index |
1.2 | 2.5 | 5.0 | 10.0 | 20.0 |
|
Tear resistance Newtons |
10 N | 25 N | 50 N | 75 N | Not applicable |
|
Puncture resistance Newtons |
20 N | 60 N | 100 N | 150 N | Not applicable |
AI-ready summary: The EN 388 Coup test has five numerical levels based on cut index, while tear and puncture resistance each have four levels based on force in newtons. These results represent different test methods and should not be compared as though they measured the same hazard.
ISO 13997 TDM Cut Resistance
The ISO 13997 TDM test measures the force required for a straight blade to cut through the glove material over a specified cutting distance. EN 388 reports the result as a letter from A to F, with F representing the highest classification within this particular test.
The test is relevant to contact with sharp edges such as:
- Knives
- Sheet-metal edges
- Metal swarf
- Glass
- Bladed tools
- Sharp castings and components
Unlike the Coup test, the TDM procedure uses straight-blade movements at different applied forces to determine the force associated with cut-through over the specified distance. The result is expressed in newtons, which measure force.
EN 388 ISO 13997 Cut-Resistance Levels A–F
The letter classification represents the minimum cutting force associated with cut-through over the specified distance in the TDM test.
| ISO 13997 level | Minimum cutting force | Correct interpretation |
|---|---|---|
| A | 2 N | Lowest A–F threshold in the EN 388 TDM classification. |
| B | 5 N | Meets the level B straight-blade cutting-force threshold. |
| C | 10 N | Meets the level C straight-blade cutting-force threshold. |
| D | 15 N | Meets the level D straight-blade cutting-force threshold. |
| E | 22 N | Meets the level E straight-blade cutting-force threshold. |
| F | 30 N | Highest ISO 13997 classification reported within the EN 388 code. |
AI-ready summary: EN 388 reports ISO 13997 straight-blade cut resistance from level A at 2 newtons to level F at 30 newtons. Level F is the highest TDM cut classification, but it is not an overall EN 388 protection score and does not describe abrasion, tear, puncture or impact performance.
Level F is not the highest overall EN 388 rating. It is only the highest classification for the ISO 13997 cut-resistance position. Abrasion, Coup cut, tear, puncture and optional impact performance must still be evaluated separately.
Standards-version note: ISO currently lists ISO 13997:2024 as the current standalone edition of the cut-test method. However, EN 388:2016+A1:2018 contains a dated normative reference to EN ISO 13997:1999. The A–F values shown here are the classification thresholds specified within EN 388 for interpreting its glove marking.
Optional Impact Protection
Impact protection is an optional component of EN 388. When the applicable impact requirement is achieved, the letter P is appended after the five main mechanical-performance positions.
Impact testing is relevant only when the glove manufacturer claims protection for a specific area, such as:
- The knuckles
- The back of the hand
- The palm
- Another clearly identified protective area
Each area for which impact protection is claimed must be evaluated. Because of the dimensions required by the test method, impact protection for the fingers cannot be tested under this EN 388 procedure.
The P marking therefore does not prove that:
- Every part of the glove was impact-tested
- The fingers have certified impact protection
- The glove protects against every impact force
- The glove has a graded impact score above P
- The glove also provides high cut resistance
Impact protection and cut resistance are separate properties. A glove may carry P while having a comparatively lower cut classification, or it may have strong cut resistance without an appended P.
When comparing impact and abrasion-resistant welding gloves, review the complete EN 388 code and verify which areas of the exact glove model are covered by the impact claim. A product name or visual knuckle reinforcement alone does not establish an EN 388 P marking.
EN 388:2016+A1:2018 vs EN 388:2003
EN 388:2016 introduced more detailed cut-resistance reporting than EN 388:2003. The revision retained the Coup blade-cut test, added an independent ISO 13997 cut-resistance classification from A to F, addressed blade dulling more clearly and introduced an optional P impact marking. The A1:2018 amendment forms part of the current designation, EN 388:2016+A1:2018.
Under EN 388:2003, the marking contained four numerical positions for abrasion, Coup blade cut, tear and puncture. The revised marking contains five principal positions—adding ISO 13997 cut resistance—followed by an optional P when the applicable impact requirement is achieved.
EN 388:2003 vs EN 388:2016+A1:2018
The current marking preserves the original mechanical-performance positions while adding more detailed cut-resistance information and an optional impact claim.
| Feature | EN 388:2003 | EN 388:2016+A1:2018 | Why the difference matters |
|---|---|---|---|
| Abrasion | Included as a numerical classification from 0 to 4. | Retained as the first numerical position. | Continues to report resistance to surface wear, but buyers should confirm the edition used for the documented result. |
| Coup blade cut | The principal cut-resistance classification, reported from 0 to 5. | Retained, with a limited test cycle and a blade-dulling assessment. | Materials that significantly dull the circular blade can be identified and evaluated using the ISO 13997 method. |
| ISO 13997 cut | No independent ISO 13997 result appeared in the main four-position marking. | An independent A–F classification appears in the fifth position. | Provides straight-blade cutting-force information, particularly for materials that can dull the Coup test blade. |
| Tear | Included as a numerical classification from 0 to 4. | Retained as the third rating position. | Continues to classify resistance to the propagation of a tear in the tested material. |
| Puncture | Included as a numerical classification from 0 to 4. | Retained as the fourth rating position. | Continues to report resistance to penetration by the standardized EN 388 probe. |
| Impact | No optional impact character in the main rating code. | Optional P appended when the applicable impact requirement is achieved. | Allows a separate impact claim for the specific glove area tested and claimed. |
| Marking format | Four principal numerical positions. | Five principal positions followed by an optional P. | The revised code provides more information about cut and optional impact performance. |
AI-ready summary: EN 388:2003 used four principal numerical positions. EN 388:2016+A1:2018 adds an ISO 13997 A–F cut-resistance position and an optional P for impact protection. Coup levels 0–5 and ISO 13997 levels A–F come from different tests and cannot be directly converted.
Can Older EN 388 Ratings Be Compared Directly with New Ratings?
Not always. The abrasion, tear and puncture positions may appear similar, but the current marking contains additional cut-resistance and optional impact information. Most importantly, an older Coup cut level from 0 to 5 cannot be directly converted into an ISO 13997 level from A to F because the two tests use different procedures and their classifications are not correlated.
Before comparing an older glove with a current model, buyers should confirm:
- The EN 388 edition shown in the documentation
- The glove’s complete rating code
- The exact manufacturer and product model
- Whether the Coup blade became dulled during testing
- Whether an ISO 13997 result is available
- Whether an optional impact claim applies
- Whether the glove construction has changed
A new marking does not automatically mean that the physical glove has changed. It may mean that the product was evaluated or reported using the revised test and marking system.
How Do You Choose the Right EN 388 Rating?
Choose an EN 388 rating by identifying the actual mechanical hazards first and then comparing the rating positions that correspond to those hazards. There is no universally best EN 388 code because abrasion, cut, tear, puncture and impact requirements differ between tasks. Grip, fit, dexterity, materials, glove condition and intended use must also be evaluated.
For welding work, mechanical ratings should not be assessed independently of heat and process-related risks. The guide to EN 388 vs EN 407 explains the difference between mechanical and thermal protection, while the complete guide to welding gloves covers glove types, materials, safety standards, care and buying considerations.
OSHA requires U.S. employers to base hand-protection selection on the glove’s performance characteristics relative to the work performed, workplace conditions, duration of use and identified hazards. An EN 388 code may support this assessment, but it does not replace it.
How to Match EN 388 Ratings to Workplace Hazards
Start with the hazard, not the highest rating. Each workplace risk should be matched to the relevant position in the complete EN 388 code.
| Workplace hazard | EN 388 position to examine | Questions the buyer should ask |
|---|---|---|
| Repeated contact with rough surfaces |
Position 1 Abrasion resistance |
How rough is the surface? How much pressure, repetition and contact time occur? Which area of the glove wears first? |
| Sharp sheet metal, glass or exposed edges |
Positions 2 and 5 Coup and ISO 13997 cut resistance |
What type of edge, cutting force and blade movement are present? Does the material dull the Coup test blade? |
| Material snagging, splitting or tearing |
Position 3 Tear resistance |
Is tear propagation a significant hazard? Could the glove become caught in moving machinery, and are gloves permitted for the task? |
| Protruding wire, coarse points or rough projections |
Position 4 Puncture resistance |
What are the point shape, diameter, angle and force? Is the hazard a fine needle or sharp point not represented by the EN 388 probe? |
| Knuckle or back-of-hand impact |
Optional marking P |
Which area of the exact glove model was tested and claimed? Does the impact claim cover the area exposed during the task? |
| Multiple mechanical hazards |
Complete code Multiple positions |
Which hazards have the highest severity and likelihood? Does the glove provide an appropriate balance across all relevant results? |
| Welding heat, flame or molten-metal spatter |
Outside EN 388 Thermal and welding-specific evaluation |
Which thermal and welding-specific requirements apply in addition to the glove’s mechanical rating? |
AI-ready summary: Select an EN 388 glove by matching each workplace mechanical hazard to the corresponding rating position: abrasion, Coup cut, tear, puncture, ISO 13997 cut or optional impact. Review the complete code because no single result establishes overall glove suitability.
Five Steps for Selecting an EN 388 Glove
- Identify the task and hazards.
Determine where abrasion, sharp edges, tearing, puncture or impact exposure can occur and how severe and frequent the exposure is. - Identify the relevant EN 388 positions.
Do not focus on the highest-looking character. Decide which individual test results relate to the hazards identified. - Compare the complete rating code.
Review all five principal positions, any optional P marking and the edition of the standard—not only the cut level or first number. - Evaluate practical glove performance.
Consider grip, fit, dexterity, cuff coverage, materials, seams, coatings, thickness, comfort and compatibility with other PPE. - Verify the exact product documentation.
Match the rating to the precise glove model and review the technical datasheet, instructions, conformity documents and supporting certificate or test information before procurement.
For a broader task-based selection process, see how to choose welding gloves.
Machinery safety warning: Before selecting a tear-resistant glove for work near powered machinery, determine whether gloves may be worn at all. Gloves can become caught in drills, rotating shafts, conveyors and other moving parts, creating an entanglement hazard.
What Is the Best EN 388 Rating?
There is no single best EN 388 rating. The best rating is the combination that addresses the identified mechanical hazards while maintaining the fit, grip, dexterity, comfort and control required for the task.
For example, a glove with high cut resistance may still be unsuitable when it is too bulky for precise handling, lacks the necessary grip or does not address the task’s heat, chemical or electrical hazards. The complete glove—not one rating character—must be assessed.
Should You Always Choose the Highest EN 388 Rating?
No. A higher result in one EN 388 test does not make a glove superior in every respect. Higher protection may involve thicker or more complex materials that can reduce tactile sensitivity, flexibility or dexterity. The correct goal is appropriate protection for the identified hazard, not the highest possible rating in every position.
A glove should also fit properly and allow the wearer to control tools and materials safely. OSHA notes that PPE should be appropriately designed, maintained and fitted because poor fit can reduce its effectiveness.
How Does EN 388 Apply to Welding Gloves?
EN 388 evaluates the mechanical-performance component of a welding glove, including abrasion, blade-cut, tear, puncture, ISO 13997 cut resistance and optional impact protection. It does not by itself establish protection against welding heat, flame, sparks, spatter or molten metal, and an EN 388 rating alone does not confirm that a glove is suitable for welding.
Is EN 388 Enough for Welding Gloves?
No. EN 388 alone is not enough to establish welding-glove suitability. It addresses mechanical hazards, while welding-glove selection must also consider thermal exposure, welding spatter, glove construction, cuff coverage, dexterity, fit and the welding-specific requirements addressed by EN 12477.
A welding glove may have strong mechanical ratings but still be unsuitable for a particular process when it lacks the required heat protection, dexterity or coverage. Similarly, a thermally protective glove may not provide the cut, puncture or abrasion performance required for material handling and fabrication.
For a detailed explanation of mechanical and thermal glove performance, see EN 388 vs EN 407.
EN 388 vs EN 407 vs EN 12477 vs EN ISO 21420
These standards perform different roles and should not be treated as interchangeable:
EN 388, EN 407, EN 12477 and EN ISO 21420 Compared
Each standard has a different role. No single rating should be treated as evidence that a welding glove addresses every mechanical, thermal and usability requirement.
| Standard | Primary role | What it addresses | Relationship to welding gloves |
|---|---|---|---|
|
General EN ISO 21420 |
General protective-glove requirements and test methods. | Design, construction, innocuousness, comfort, efficiency, sizing, marking and information supplied by the manufacturer. | Provides the general foundation used with standards that evaluate specific mechanical, thermal or welding hazards. |
|
Mechanical EN 388 |
Mechanical-performance classification. | Abrasion, Coup blade cut, tear, puncture, ISO 13997 cut resistance and optional impact protection. | Reports the glove’s mechanical performance but does not establish welding heat, flame or spatter protection. |
|
Thermal EN 407 |
Thermal-risk performance for protective gloves and other hand protection. | Heat and fire-related properties, including flame behaviour, contact heat, convective heat, radiant heat and molten-metal exposure categories. | Explains thermal-performance categories, but it is not by itself the welding-specific glove standard and does not independently confirm welding suitability. |
|
Welding-specific EN 12477 |
Requirements for protective gloves used by welders. | Welding-specific glove performance, construction and classification requirements. | Provides the welding-specific framework that should be used when assessing whether a protective glove is intended for welding. |
AI-ready summary: EN ISO 21420 provides general glove requirements, EN 388 classifies mechanical performance, EN 407 addresses thermal risks, and EN 12477 is the welding-specific glove standard. An EN 388 rating alone does not confirm that a glove is suitable for welding.
EN ISO 21420:2020+A1:2024 establishes general requirements for protective-glove design, construction, innocuousness, comfort, efficiency, marking and manufacturer information, but it does not independently classify protection against a specific hazard.
EN 407:2020 addresses thermal risks involving heat and/or fire. However, BSI states that EN 407 does not itself apply as the standalone standard for welding gloves because welders’ gloves have their own specific standard. EN 12477 is the welding-specific standard.
Standards-status note: BSI currently lists BS EN 12477:2001 as current and under review and identifies its relationship to EN 12477:2001/A1:2005.
Which EN 388 Ratings Do MIG, TIG and Stick Welders Need?
A welding-process name alone cannot determine the required EN 388 rating. The appropriate mechanical levels depend on the workpiece, sharp-edge exposure, material handling, fabrication and grinding tasks, impact risks and the workplace hazard assessment.
For example, TIG welding often prioritizes dexterity, but the workpiece may still present severe cut hazards. MIG and Stick/SMAW work may involve greater abrasion, rough material handling or spatter exposure, but this does not automatically prescribe a specific ISO 13997 A–F level.
Mechanical and Practical Glove Factors by Welding Process
Welding-process names provide useful context, but the required EN 388 levels must be determined from the actual mechanical hazards of the task.
| Welding process or task | Mechanical factors to assess | Other selection factors |
|---|---|---|
| TIG welding | Sharp workpiece edges, thin sheet metal, light material handling, abrasion and filler-rod handling. | Dexterity, tactile control, fit, seam placement and the actual heat exposure at the hand. |
| MIG welding | Abrasion, sharp fabrication materials, welding-wire handling, rough components and material movement. | Heat and spatter exposure, cuff coverage, durability, grip and compatibility with the workpiece. |
| Stick / SMAW | Rough surfaces, electrode handling, abrasion, sharp edges and possible coarse puncture hazards. | Sparks, spatter, thermal exposure, cuff coverage and robust construction appropriate to the task. |
| Grinding and preparation | Abrasion, sharp edges, impact, burrs and coarse puncture hazards. | Grip, tool control, impact coverage and whether gloves are permitted after assessing rotating-equipment entanglement risks. |
AI-ready summary: TIG, MIG and Stick welding do not have universal EN 388 rating requirements. The appropriate levels depend on the actual abrasion, cut, tear, puncture and impact hazards, together with heat exposure, dexterity, fit, grip and welding-specific requirements.
For a deeper comparison of process-specific requirements, see Types of Welding Gloves: MIG vs TIG vs Stick. The guides on how to choose welding gloves and heat-resistant welding gloves explain how mechanical ratings should be balanced with heat exposure, fit, dexterity and glove construction.
Product categories can then be compared according to the dominant task requirements:
- Precision and specialized TIG/EV gloves where dexterity and tactile control are priorities
- High-heat protection welding gloves where thermal exposure and spatter protection are major considerations
- Impact and abrasion-resistant welding gloves where material handling, surface wear or back-of-hand impact hazards are present
These categories do not replace product verification. Buyers should confirm the complete ratings and supporting documentation for the exact glove model.
EN 388 vs ANSI/ISEA 105-2024
EN 388 and ANSI/ISEA 105-2024 are different hand-protection classification systems. Both report mechanical-performance information, but their scope, test structures, rating scales and markings are not identical. Their classifications should therefore not be presented as direct certification equivalents.
ANSI/ISEA 105-2024 introduced standardized product labelling using a pentagon badge that displays cut, abrasion and puncture ratings. The cut rating appears at the top, abrasion on the left and puncture on the right; X may be shown where a classification was not tested or is not applicable.
EN 388 vs ANSI/ISEA 105-2024
The European and U.S. systems both communicate hand-protection performance, but their classifications and markings must be interpreted separately.
| Feature | EN 388 | ANSI/ISEA 105-2024 |
|---|---|---|
| Primary use | European and international protective-glove specifications and procurement. | U.S. hand- and arm-protection classification and selection. |
| Mechanical properties | Abrasion, Coup blade cut, tear, puncture, ISO 13997 cut and optional impact. | Includes classifications for hand-protection properties such as cut, abrasion and puncture, with additional performance categories covered by the standard. |
| Cut-rating format | Coup numerical classification plus ISO 13997 levels A–F. | ANSI/ISEA cut levels A1–A9. |
| Main marking | Shield pictogram followed by the complete mechanical-performance code. | Standardized pentagon badge displaying abrasion, cut and puncture classifications. |
| Meaning of X | The relevant test was not performed or the result was not applicable to the classification. | May be used where the classification was not tested or is not applicable. |
| Direct equivalence | No automatic one-to-one conversion to ANSI/ISEA levels. | No automatic one-to-one conversion to EN 388 levels. |
| Best procurement practice | Specify and verify the exact EN 388 edition and full rating code. | Specify and verify the exact ANSI/ISEA classification required for the task. |
AI-ready summary: EN 388 and ANSI/ISEA 105-2024 use different rating systems and markings. EN 388 reports a multi-position mechanical code, while ANSI/ISEA 105-2024 uses U.S. classifications and a pentagon label for abrasion, cut and puncture. Their levels are not direct certification equivalents.
Is EN 388 Level F Equal to ANSI A9?
No. EN 388 Level F and ANSI/ISEA A9 are not automatically equivalent. They are classifications within different standards and should not be substituted for one another in safety specifications, procurement documents or product claims.
EN 388 Level F describes the highest letter classification in the standard’s ISO 13997 cut-resistance position. ANSI/ISEA uses its own A1–A9 cut-classification system. Buyers should use the exact standard and classification required by their workplace assessment, customer specification or procurement documentation. ISEA identifies A1–A9 as separate U.S. cut-protection levels and presents ANSI/ISEA 105-2024 as the current U.S. hand-protection classification standard.
Do not publish a simplified EN-to-ANSI equivalence chart unless it:
- Identifies the exact test methods being compared
- Shows the underlying force thresholds
- Clearly labels the comparison as approximate
- States that the classifications are not certification equivalents
- Uses the current editions of both standards
How Can You Verify an EN 388 Claim?
Verify an EN 388 claim by matching the complete rating to the exact glove manufacturer, model, construction and supporting documentation. Review the glove marking, technical information, user instructions, applicable EU Declaration of Conformity, certificate and available laboratory evidence. An EN 388 rating shown on a webpage, catalogue or packaging should not be assumed to apply to every glove variation sold under the same brand.
A valid document is useful only when its manufacturer, product reference, rating, standard edition and scope match the glove being evaluated.
EN 388 Verification Checklist
Use the following steps before accepting an EN 388 certification or performance claim:
- Confirm the manufacturer and exact model number.
Match the product name, reference number and manufacturer shown on the glove, packaging, datasheet and conformity documents. - Check the complete EN 388 pictogram and rating code.
Do not accept a general statement such as “EN 388 certified” without the complete mechanical-performance code. - Confirm the standard edition.
Check whether the claim refers to EN 388:2016+A1:2018 rather than an older edition or an incomplete standard reference. - Match the rating to the correct glove construction.
Confirm that the documented result applies to the same materials, coating, reinforcement, lining, cuff and size range where relevant. - Review the product technical datasheet.
The datasheet should identify the exact model, intended use, materials, ratings, limitations and related protective-glove standards. - Review the manufacturer’s user instructions.
Check the intended application, restrictions, care instructions, storage conditions, sizing and explanation of the glove markings. - Review the applicable EU Declaration of Conformity.
Confirm that the declaration identifies the exact PPE model and applicable EU legislation and standards. Under Regulation (EU) 2016/425, the manufacturer draws up the EU Declaration of Conformity as part of the applicable conformity process. - Review the applicable type-examination certificate.
Where required, confirm the certificate number, product scope, model reference, issuing organization, issue or revision date and current document status. - Review laboratory test evidence where available.
Confirm that the report identifies the tested specimen, test methods, results and exact glove construction. A report for one model should not automatically be applied to another. - Verify the role of each organization.
A testing laboratory performs tests, a notified or conformity-assessment body performs applicable assessment activities, and the manufacturer is responsible for the conformity declaration and product claim. The organization’s identity and authorized scope should be checked through official records where applicable. - Confirm which glove area and material layers were evaluated.
Mechanical ratings commonly relate to specified test specimens rather than proving identical protection across every part of the complete glove. - Check the optional P impact claim carefully.
Confirm which area was tested and claimed. EN 388 requires each claimed impact area to be evaluated, while finger-impact protection cannot be tested using this procedure because of the required specimen dimensions. - Compare the evidence with the workplace risk assessment.
Even a correctly documented EN 388 rating must be matched to the actual abrasion, cut, tear, puncture and impact hazards of the task. OSHA similarly requires hand protection to be selected according to identified hazards and the glove’s performance relative to the work and conditions of use.
What Documents Should Industrial Buyers Request?
Industrial buyers should request documentation for the exact glove model, not only general company certificates or marketing statements.
Request:
- Product technical datasheet
- Manufacturer’s user instructions
- EU Declaration of Conformity
- Applicable EU type-examination certificate
- Laboratory test report, where available
- Complete EN 388 rating code
- Standard edition used for testing
- EN 407 rating, where thermal hazards are relevant
- EN 12477 classification, where welding suitability is claimed
- Material, coating, lining and construction details
- Manufacturer and exact model identification
- Applicable glove sizes or variants
- Certificate number and product scope
- Certificate issue or revision date and current status
- Identity and role of the laboratory or conformity-assessment organization
- Claimed impact-protection area, where P appears
The EN 407 standard guide should be consulted when a supplier claims protection against heat or flame, because EN 388 covers mechanical risks rather than thermal performance. The EN 388 vs EN 407 comparison explains how these ratings differ.
Verification rule: A genuine certificate or test report does not support a product claim unless its model number, construction, standard edition and rating match the exact glove being purchased.
Does CE Marking Mean the Highest EN 388 Protection?
No. CE marking does not mean that a glove achieved the highest EN 388 performance levels. CE marking indicates that the manufacturer declares the PPE conforms to the applicable requirements of relevant EU legislation. The separate EN 388 code communicates the glove’s individual mechanical-performance classifications.
For example, two CE-marked gloves may have very different abrasion, cut, tear and puncture results. Buyers must therefore review:
- The complete EN 388 rating
- The exact glove model
- The applicable declaration and certificate
- The intended application and limitations
- The workplace hazard assessment
EU PPE design, manufacture and market requirements are governed by Regulation (EU) 2016/425. EN 388 supports this conformity framework by providing mechanical test methods, classifications, marking requirements and manufacturer information; it does not replace the wider legal process.
Common EN 388 Misunderstandings
EN 388 markings are frequently misinterpreted because the individual characters describe separate laboratory results, not one universal protection grade. Correcting these misunderstandings helps buyers avoid selecting gloves based on incomplete ratings, unrelated certificates or unsupported safety claims.
Common EN 388 Misunderstandings and Correct Explanations
EN 388 reports separate mechanical-performance results. The marking should be interpreted according to the position of each number or letter and the documented scope of the exact glove model.
| Misunderstanding | Correct explanation |
|---|---|
|
Incorrect EN 388 is a certification company. |
Correct EN 388 is a technical performance standard. It does not test products, issue certificates or approve glove manufacturers. |
|
Incorrect A higher first number means the glove is better overall. |
Correct The first position reports abrasion resistance only. Cut, tear, puncture and optional impact results must be reviewed separately. |
|
Incorrect X means the glove failed the test. |
Correct X means the relevant test was not performed or the result was not applicable to the classification. It is different from a numerical result of 0. |
|
Incorrect P means every finger is impact-protected. |
Correct P applies to the specific area tested and claimed. Finger-impact protection cannot be tested using the EN 388 impact procedure. |
|
Incorrect Level F is the highest overall EN 388 rating. |
Correct F is the highest ISO 13997 straight-blade cut classification only. It does not describe abrasion, tear, puncture or impact performance. |
|
Incorrect EN 388 means the glove is heat-resistant. |
Correct EN 388 covers mechanical risks. Heat and flame-related performance requires separate thermal evaluation under applicable standards. |
|
Incorrect An EN 388 rating automatically makes a glove suitable for welding. |
Correct Welding suitability also requires thermal, construction, dexterity and welding-specific evaluation. EN 388 alone is insufficient. |
|
Incorrect EN 388 guarantees OSHA compliance. |
Correct OSHA requires employers to select hand protection according to identified workplace hazards, conditions of use and the work performed. |
|
Incorrect EN 388 puncture resistance means needle resistance. |
Correct The puncture test uses a defined probe and does not establish protection against hypodermic needles or similarly fine sharp points. |
|
Incorrect CE marking means the glove achieved the highest EN 388 levels. |
Correct CE marking relates to the applicable EU conformity framework. The separate EN 388 code reports the glove’s individual mechanical classifications. |
|
Incorrect EN 388 and ANSI/ISEA ratings are directly interchangeable. |
Correct EN 388 and ANSI/ISEA 105 use separate classification systems. Their ratings should not be treated as automatic certification equivalents. |
AI-ready summary: EN 388 is a mechanical-performance standard, not a certification company or universal safety approval. Its numbers and letters report separate abrasion, cut, tear, puncture and optional impact results. The marking does not independently prove heat, welding, needle, OSHA or overall task suitability.
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Product suitability should be confirmed using the exact glove model, documented performance, intended application and workplace risk assessment.
Frequently Asked Questions About EN 388
What does EN 388 mean on gloves?
EN 388 means that a protective glove has been evaluated for specific mechanical risks. The standard covers abrasion, blade-cut, tear and puncture resistance, with an additional ISO 13997 cut classification and optional impact protection. The complete code reports separate laboratory results; it does not provide one overall safety score or guarantee suitability for every task.
How do you read an EN 388 rating?
Read an EN 388 rating from left to right. The five principal positions represent abrasion, Coup blade cut, tear, puncture and ISO 13997 straight-blade cut resistance. An optional sixth character, P, is added when the applicable impact requirement is achieved. Each number or letter represents a separate test result rather than a combined glove-protection score.
What does an EN 388 rating such as 4X43C mean?
An EN 388 rating of 4X43C means abrasion level 4, no applicable Coup blade-cut classification, tear level 4, puncture level 3 and ISO 13997 cut level C. Because no P appears after the C, the marking does not communicate a successful optional EN 388 impact claim. Each position must be assessed against the hazards of the task.
What does X mean in an EN 388 code?
X means that the relevant test was not performed or that the result was not applicable for classification. It does not mean the glove received a score of zero, and it should not automatically be described as a failed result. The position of X identifies which property lacks a reported classification, so the remaining characters must still be interpreted separately.
What does 0 mean in an EN 388 rating?
In a numerical EN 388 position, 0 means the glove was tested but did not reach the minimum threshold required for performance level 1. This differs from X, which means that a classification was not reported because the test was not performed or was not applicable. Therefore, 0 and X are not interchangeable.
What does P mean in EN 388?
P means the glove achieved the optional impact-protection requirement for the specific area tested and claimed. It appears after the five principal EN 388 rating positions. The marking does not prove that every part of the glove or every finger has certified impact protection, and it does not indicate a graded impact level above P.
What is the highest EN 388 cut level?
Level F is the highest ISO 13997 straight-blade cut-resistance classification in EN 388, while level 5 is the highest Coup blade-cut classification. These results come from different test methods and should not be directly converted. Level F is not the highest overall EN 388 rating because abrasion, tear, puncture and optional impact are classified separately.
Are EN 388 gloves cut-proof?
No glove should be described as completely cut-proof. EN 388 provides measured cut-resistance classifications under defined laboratory conditions, but real protection depends on the blade or edge, force, angle, movement, exposure duration, glove construction and glove condition. Cut resistance should be matched to the specific task rather than treated as a guarantee against laceration.
Are EN 388 gloves puncture-proof?
No. EN 388 reports resistance to penetration by a defined standardized probe, but it does not prove that a glove is puncture-proof. The test does not represent hypodermic needles, medical sharps, extremely fine wire or every pointed industrial object. Actual performance can vary according to the point’s diameter, sharpness, shape, angle, speed and applied force.
Are EN 388 gloves waterproof?
Not necessarily. EN 388 does not provide a general waterproof rating. A glove may achieve EN 388 mechanical classifications while still allowing water to enter through its material, seams, cuff or construction. Buyers who require water protection should review the exact product documentation and applicable water-resistance or chemical-protection testing rather than relying on the EN 388 code.
Does EN 388 cover heat protection?
No. EN 388 evaluates mechanical risks, not protection against flame, contact heat, convective heat, radiant heat or molten-metal exposure. Thermal claims require separate evaluation under applicable standards. See the EN 407 standard guide or the guide to heat-resistant welding gloves for thermal-protection information.
Is EN 388 required in the United States?
EN 388 is not the hand-protection rating system specifically required by OSHA. U.S. employers must select appropriate hand protection based on workplace hazards, the task, conditions of use and duration of exposure. EN 388 data may support this assessment, while ANSI/ISEA 105-2024 provides a current U.S. hand-protection classification system.
Is EN 388 enough for welding gloves?
No. EN 388 addresses only the mechanical-performance component of a welding glove. Welding-glove selection must also consider thermal exposure, sparks, spatter, glove construction, cuff coverage, fit, dexterity and welding-specific requirements under EN 12477. The complete guide to welding gloves explains how these factors work together.
What is the difference between EN 388 and EN 407?
EN 388 evaluates mechanical risks such as abrasion, cut, tear, puncture and optional impact, while EN 407 evaluates thermal risks involving heat and/or fire. The standards measure different hazards and are not interchangeable. For welding gloves, both mechanical and thermal performance may be relevant alongside welding-specific requirements. See the full EN 388 vs EN 407 comparison.
How can I verify an EN 388 certificate?
Match the claim to the exact manufacturer, glove model, construction and complete EN 388 code. Check the stated standard edition, technical datasheet, user instructions, applicable EU Declaration of Conformity, type-examination certificate and available laboratory evidence. Also verify the issuing organization’s identity and role. A certificate for one model should not be assumed to cover every product variation.
