Why Glove Selection Matters More Than You Think
Hand injuries are among the most common workplace injuries across industries — and a significant portion involve workers who were either wearing no gloves or the wrong type of gloves for the task. Understanding the differences between glove categories is essential for both employers and workers making PPE decisions.
Cut-Resistant Gloves
Cut-resistant gloves are designed to protect against lacerations from sharp edges, blades, and glass. They are rated using the ANSI/ISEA 105 cut resistance standard, which ranges from A1 (lightest protection) to A9 (highest protection).
- Materials used: HPPE (high-performance polyethylene), Kevlar, Dyneema, steel wire, or blended fibers
- Best for: Metal fabrication, glass handling, food processing, automotive assembly
- Key consideration: Higher cut resistance often means reduced dexterity — match the protection level to the actual risk, not the highest rating available
Chemical-Resistant Gloves
Chemical-resistant gloves protect against exposure to hazardous substances — but no single glove material protects against all chemicals. Always consult the chemical's Safety Data Sheet (SDS) before selecting a glove.
| Material | Good Against | Not Suitable For |
|---|---|---|
| Nitrile | Oils, fuels, solvents, greases | Strong ketones, some esters |
| Neoprene | Acids, caustics, alcohols | Aromatic solvents |
| Butyl Rubber | Ketones, esters, strong acids | Aliphatic/aromatic hydrocarbons |
| Latex (Natural Rubber) | Mild chemicals, biological hazards | Solvents, oils; allergy risk |
| PVC | Acids, caustics, oils | Organic solvents |
Always check glove thickness — thicker gloves offer more protection but less tactile sensitivity.
Heat-Resistant Gloves
Heat-resistant gloves protect hands from burns caused by contact heat, radiant heat, and sparks. They are commonly used in welding, foundry work, glass blowing, and commercial kitchens.
- Leather gloves: Good general heat protection; standard in welding; durable
- Aluminized gloves: Reflect radiant heat; used near furnaces or molten metal
- Kevlar gloves: Excellent heat and cut resistance combined; good for handling hot metal parts
- Oven/silicone gloves: For food service and contact with hot surfaces up to moderate temperatures
Check the glove's rated temperature range against the temperatures you'll actually encounter.
Impact-Resistant Gloves
Impact gloves feature reinforced padding — typically TPR (thermoplastic rubber) or foam — over the knuckles and back of hand to absorb the force of strikes, pinch points, and dropped objects.
- Best for: Oil and gas, mining, heavy construction, offshore work
- ANSI/ISEA 138 standard: Rates impact protection on a 3-level scale for the back of hand and fingers
- Combination gloves: Many impact gloves also incorporate cut resistance — practical for environments with multiple hazards
How to Choose the Right Glove: A Quick Decision Framework
- Identify the hazard: Cut? Chemical? Heat? Impact? Multiple?
- Assess the severity: Occasional light exposure vs. continuous heavy exposure changes the protection level needed
- Check relevant standards: ANSI/ISEA for the US; EN standards in Europe
- Consider dexterity requirements: Fine assembly work needs thinner, more flexible gloves
- Verify fit: Gloves that are too large or small increase injury risk — always size properly
- Consult SDS (for chemicals): Confirm the glove material is compatible with specific substances
Glove Maintenance and Replacement
Even the best gloves degrade over time. Inspect gloves before each use for punctures, tears, discoloration, or stiffness. Chemical gloves should be replaced according to manufacturer permeation ratings — invisible degradation can occur before visible damage appears.
The right glove for the right job is one of the most cost-effective safety investments you can make.