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Safety Gloves

Hand protection selected to match the specific workplace hazard. Mechanical protection per ANSI/ISEA 105-2016: cut resistance levels A1-A9 (gram-force to cut on TDM machine — A4/A6 most common for industrial), puncture resistance (1-5), and abrasion resistance (1-6). Chemical protection per EN 374 and ASTM F739: permeation breakthrough time determines protection level. Thermal protection per EN 407: contact heat, convective heat, and molten metal splash. Electrical protection per ASTM D120: dielectric gloves Class 00 (500V) through Class 4 (36,000V). Common materials: nitrile (oil/chemical resistance, good dexterity — most common industrial glove), latex (best elasticity and tactile sensitivity, natural rubber), neoprene (chemical + oil + flame), Kevlar/aramid (cut resistance A4-A6), HPPE/Dyneema (cut resistance, lightweight), leather (abrasion, heat, welding), and PVC (chemical, waterproof). Multi-hazard gloves combine materials: e.g., HPPE liner with nitrile coating provides cut A4 + oil resistance. Per OSHA 29 CFR 1910.138 and NOM-017-STPS (Mexico). Selection: match glove to the specific hazard identified in the risk assessment — no single glove protects against all hazards. Brands: Ansell (HyFlex, AlphaTec), Honeywell (North), Showa, PIP, Mechanix Wear, MCR Safety.

What you need to know

  • Hand protection selected to match the specific workplace hazard.
  • Mechanical protection per ANSI/ISEA 105-2016: cut resistance levels A1-A9 (gram-force to cut on TDM machine — A4/A6 most common for industrial), puncture resistance (1-5), and abrasion resistance (1-6).
  • Chemical protection per EN 374 and ASTM F739: permeation breakthrough time determines protection level.
  • Thermal protection per EN 407: contact heat, convective heat, and molten metal splash.
  • Electrical protection per ASTM D120: dielectric gloves Class 00 (500V) through Class 4 (36,000V).

Full definition

Safety gloves are a critical component of personal protective equipment (PPE) designed to protect workers' hands from a variety of hazards present in different industrial environments. The selection of appropriate gloves is essential, as various workplace hazards require specific types of protection. Mechanical protection is governed by the ANSI/ISEA 105-2016 standard, which categorizes gloves based on cut resistance levels from A1 to A9, with levels A4 and A6 being the most common for industrial applications. These levels are determined by the gram-force required to cut through the gloves using a TDM machine, making it vital for procurement managers to understand these ratings when selecting gloves for their workforce. In addition to cut resistance, gloves are also rated for puncture resistance (1-5) and abrasion resistance (1-6), allowing for a comprehensive assessment of their protective capabilities.

Chemical protection is another crucial aspect, particularly in industries where workers are exposed to hazardous substances. The EN 374 and ASTM F739 standards define the permeation breakthrough time, which determines how long a glove can resist chemical penetration. This is vital for workers handling solvents, acids, or other harmful chemicals. Further, thermal protection can be assessed according to EN 407, which covers the glove's resistance to contact heat, convective heat, and molten metal splashes, ensuring safety in high-temperature environments. Electrical protection is specified by ASTM D120, categorizing dielectric gloves from Class 00 (500V) to Class 4 (36,000V), essential for electricians and those working near live electrical equipment.

The materials used in safety gloves vary significantly, each offering unique benefits. Nitrile gloves are the most common due to their oil and chemical resistance, as well as good dexterity. Latex gloves provide excellent elasticity and tactile sensitivity, being made from natural rubber. Neoprene offers protection against chemicals, oils, and flames, while Kevlar and aramid fibers provide high cut resistance, particularly in categories A4 and A6. High-Performance Polyethylene (HPPE) and Dyneema are lightweight yet provide excellent cut resistance. Leather gloves are favored for their abrasion resistance, heat protection, and suitability for welding tasks, while PVC gloves are favored for their chemical resistance and waterproofing capabilities. Multi-hazard gloves combine several materials to offer broader protection, such as an HPPE liner with a nitrile coating for cut and oil resistance. Compliance with OSHA 29 CFR 1910.138 and NOM-017-STPS in Mexico mandates that gloves must be selected based on specific hazards identified in a risk assessment, as no single glove can protect against all hazards. Major brands in the market include Ansell (HyFlex, AlphaTec), Honeywell (North), Showa, PIP, Mechanix Wear, and MCR Safety.

What you need to know

  • What you need to know:
  • Safety gloves are categorized by mechanical protection levels A1-A9, with A4 and A6 being most common for industrial use.
  • Chemical protection is assessed via permeation breakthrough times per EN 374 and ASTM F739 standards.
  • Thermal protection ratings are defined by EN 407, covering contact heat and molten metal splash resistance.
  • Electrical protection is classified according to ASTM D120, with dielectric gloves rated from Class 00 (500V) to Class 4 (36,000V).
  • Common materials include nitrile for dexterity, latex for sensitivity, and Kevlar for cut resistance, with multi-hazard gloves combining features.

Industrial applications

  • 1Manufacturing: Workers handling sharp objects often use cut-resistant gloves to prevent injuries.
  • 2Chemical processing: Employees handling hazardous chemicals require gloves with high permeation resistance.
  • 3Construction: Electricians need dielectric gloves to protect against electrical shocks.
  • 4Food processing: Nitrile gloves are used for their oil resistance and dexterity when handling food products.
  • 5Metalworking: Workers may use leather gloves for heat resistance and general abrasion protection.

Common mistakes

  • Using a single type of glove for multiple hazards, which can lead to inadequate protection.
  • Failing to check the cut resistance level of gloves used in environments with sharp tools.
  • Overlooking the importance of proper glove fit, which can hinder dexterity and safety.
  • Not considering the glove's chemical resistance ratings when working with specific substances.
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Pro tip

Always conduct a risk assessment before selecting gloves to ensure they meet the specific hazards of the workplace.

Technical standards

  • ANSI/ISEA 105-2016: Standard for Hand Protection Classification.
  • EN 374: Standard for Protective Gloves Against Chemicals and Microorganisms.
  • ASTM F739: Standard Test Method for Permeation of Liquids and Gases Through Protective Clothing.
  • EN 407: Standard for Protective Gloves Against Thermal Risks.
  • ASTM D120: Standard Specification for Insulating Gloves.

Suppliers of safety products in Mexico

Applicable standards

ASTM F739ASTM D120NOM-017-STPS