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📅 July 7, 2026 ⏱️ 10 min read 🏷️ Standards ⚡ Cut Protection

EN 388 Cut Resistance Levels: A to F Explained

If you're sourcing cut-resistant safety gloves, understanding EN 388:2016 cut resistance levels is essential. The 2016 revision changed the rating system significantly, replacing the old 1-5 numerical scale with letter grades A through F. This guide explains exactly what each level means, how it's tested, and which level you need for your application.

Key Takeaways

  • EN 388:2016 uses A-F letter system (was 1-5 in 2003 version) based on ISO 13997 Newton scores
  • TDM-100 test is more accurate than the old Coup Test for high-performance fibers
  • Level A = 2-5 Newtons (lowest), Level F = 30+ Newtons (highest)
  • Industry equivalent: EN 388 E ≈ ANSI/ISEA 105 A5
  • Don't over-specify — higher levels reduce dexterity and increase cost

EN 388:2016 Cut Resistance Levels (A-F)

LevelNewton RangeANSI EquivalentTypical Applications
A2-5 NANSI A1Light assembly, packaging, small parts
B5-10 NANSI A2Paper handling, light manufacturing
C10-15 NANSI A3Construction, material handling, automotive assembly
D15-22 NANSI A4Sheet metal, glass handling, HVAC
E22-30 NANSI A5Metal stamping, blade handling, glass manufacturing
F30+ NANSI A6-A9Meat processing, recycling, sharp blade operations

What is a Newton (N)? A Newton is the force required to cut through the material with a standardized blade in a single pass. Higher numbers mean more cut resistance.

Understanding the EN 388 Code: XX.XX.X

The full EN 388 code has up to 6 positions. Here's how to read it:

Example: EN 388 4X43C

⚠️ Important: When you see "X" in position 2, it means the Coup Test was not performed, which is common for high-performance materials that would dull the test blade. The letter in position 5 (A-F) is the more accurate cut rating.

EN 388:2003 vs 2016: What Changed?

Old Standard (2003)

New Standard (2016)

Why two tests? If a glove scores 1-3 on the Coup Test, the letter code is reported. If it scores 4-5, the ISO 13997 letter is used. This dual approach ensures accuracy across all cut levels.

TDM-100 Test Method Explained

The TDM-100 (Tomodynamometer) test, standardized as ISO 13997, is the modern method for cut resistance testing:

Why TDM-100 is Better

Choosing the Right Cut Level for Your Application

Level A-B: Low Cut Hazards

Applications: Light assembly, packaging, small parts handling, general warehouse work

Industries: E-commerce, retail, light manufacturing

Materials: HPPE, polyester, basic engineered yarns

Price range: $0.40-0.80/pair FOB

Level C: Medium Cut Hazards

Applications: Construction, automotive assembly, material handling, HVAC work

Industries: Construction, automotive, general manufacturing

Materials: HPPE + fiberglass, basic composite yarns

Price range: $0.80-1.50/pair FOB

Level D: Medium-High Cut Hazards

Applications: Sheet metal work, glass handling, appliance manufacturing

Industries: Metal fabrication, glass, appliance manufacturing

Materials: Advanced HPPE + steel blend, composite yarns with fiberglass

Price range: $1.50-2.50/pair FOB

Level E: High Cut Hazards

Applications: Metal stamping, blade handling, glass manufacturing, recycling

Industries: Heavy manufacturing, recycling, blade production

Materials: HPPE + steel + fiberglass + spandex composite

Price range: $2.00-3.50/pair FOB

Level F: Extreme Cut Hazards

Applications: Meat processing (bone-in), sharp blade operations, heavy recycling

Industries: Food processing, butchery, metal recycling, military

Materials: Steel mesh, advanced multi-fiber composites

Price range: $3.00-6.00/pair FOB

Materials Used in Cut-Resistant Gloves

MaterialCut levelsPropertiesBest for
HPPEA-DLightweight, flexible, moisture-resistantGeneral purpose cut resistance, comfort
Steel Wire BlendsD-FHighest cut protection, slightly heavierHigh cut hazards where dexterity is secondary
Composite YarnsC-EBalance of protection, dexterity, comfortMost industrial applications
Aramid (Kevlar®)B-DHeat-resistant, good cut protectionApplications requiring both cut and heat resistance
FiberglassC-DGood cut resistance, cost-effective in blendsMid-range cut protection

Common Mistakes to Avoid

1. Over-Specifying the Cut Level

Choosing level E when level C would suffice. Higher levels cost 2-3x more, reduce dexterity and comfort, and may cause workers to remove gloves — worse than no protection.

2. Ignoring Other Hazards

Cut resistance is only one part of EN 388. Also consider: Abrasion (position 1), Tear (position 3), Puncture (position 4).

3. Confusing EN 388 with ANSI/ISEA 105

These are two different standards. EN 388 uses A-F (European), ANSI uses A1-A9 (American). They're roughly equivalent but not identical.

4. Trusting Self-Reported Ratings

Always require: test reports from accredited labs (TÜV, SGS, BV, Intertek), CE certificate from EU-notified body, date of testing (within 3 years).

Testing & Certification

EN 388 testing must be performed by accredited laboratories. The certification process:

Cost: $1,500-3,000 per product for full EN 388 testing. Certificates valid 3-5 years depending on material changes.

Need Cut-Resistant Gloves?

Expedition Safety supplies EN 388 certified cut-resistant gloves from Level A to F. Free samples, FOB Ningbo pricing.

Get Cut-Resistant Gloves Quote → 📱 WhatsApp: +86 157 9997 7731

Related Guides

Frequently Asked Questions

What is the difference between EN 388:2003 and EN 388:2016 cut resistance levels?
EN 388:2003 used a numerical 1-5 scale for cut resistance based solely on the Coup Test (rotating blade). EN 388:2016 replaced this with a letter grade A-F system based on the ISO 13997 TDM-100 test (straight blade, measured in Newtons). The 2016 revision also added an optional impact protection rating (6th position, P = Pass).
What is the TDM-100 test and why is it better than the Coup Test?
The TDM-100 (Tomodynamometer) test, standardized as ISO 13997, uses a straight sharp blade applied perpendicular to the material in a single pass. The force (in Newtons) required to cut through is measured. It is more accurate than the old rotating blade (Coup Test) because: the blade doesn't dull on high-performance fibers, results are consistent across all material types, and it better correlates with real-world cutting events.
How do I read the full EN 388 code on a glove label?
The full EN 388 code has up to 6 positions: Position 1 = Abrasion (1-4), Position 2 = Coup Test cut (1-5 or X), Position 3 = Tear resistance (1-4), Position 4 = Puncture resistance (1-4), Position 5 = ISO 13997 cut (A-F), Position 6 = Impact protection (P = Pass, X = not tested). For example, 4X43C means: abrasion Level 4, Coup Test not performed (X), tear Level 4, puncture Level 3, ISO 13997 cut Level C (10-15 Newtons).
What EN388 cut level do I need for construction work?
For general construction work (handling steel, rebar, tools, concrete): EN388 Level B-C is typically sufficient (5-15 Newtons). For metal fabrication, sheet metal work, and glass handling: Level C-D (10-22 Newtons). For cutting or stamping operations with sharp edges: Level D-E (15-30 Newtons). Never over-specify — a Level F glove is expensive and bulky, and workers may remove it.
Are EN 388 and ANSI/ISEA 105 cut levels the same?
No — they are different standards with different scales. EN 388 uses A-F (Newton-based via ISO 13997), while ANSI/ISEA 105 uses A1-A9 (gram-force based). They are roughly equivalent: EN A ≈ ANSI A1, EN B ≈ ANSI A2, EN C ≈ ANSI A3, EN D ≈ ANSI A4, EN E ≈ ANSI A5, EN F ≈ ANSI A6-A9. When buying for a market that accepts both, look for dual-certified gloves.