Hand Safety: Preventing Injuries

Hand safety is the practice of identifying, controlling and eliminating workplace hazards that cause cuts, lacerations, punctures, fractures, amputations, burns and chemical exposures to workers' hands and fingers. Hand injuries account for nearly one-third of all nonfatal workplace injuries in North America, according to data from the Bureau of Labor Statistics. Most of these injuries are preventable through proper hazard assessment, glove selection, engineering controls and worker training. A single hand injury can cost an employer tens of thousands of dollars in medical expenses, lost productivity and workers' compensation claims - and cost the worker permanent loss of function.

Common Types of Hand Injuries at Work

Lacerations and Cuts

Cuts are the most frequent hand injury across industries. They result from contact with sharp edges, cutting tools, sheet metal, glass, blades and exposed machinery. Industries with the highest laceration rates include manufacturing, food processing, construction and warehousing.

Puncture Wounds

Nails, wire, splinters, needles and broken glass cause puncture injuries that can introduce infection and foreign bodies into tissue. Healthcare workers face additional risks from needlestick injuries and bloodborne pathogen exposure.

Crush Injuries

Hands caught between objects, under heavy loads or in machinery are subject to crushing forces that can fracture bones, rupture tendons and damage nerves. Struck-by and caught-between events are common in construction, manufacturing and material handling.

Burns (Thermal and Chemical)

Contact with hot surfaces, open flames, steam, welding arcs, corrosive chemicals and solvents causes burn injuries ranging from superficial to full-thickness tissue destruction.

Amputations

The most severe hand injury. Amputations typically result from unguarded or inadequately guarded machinery - power presses, saws, shears, conveyors and rotating equipment. OSHA tracks amputations as a severe injury requiring employer reporting within 24 hours.

Repetitive Strain and Ergonomic Injuries

Carpal tunnel syndrome, tendonitis and trigger finger develop from repetitive motion, awkward hand postures, forceful gripping and vibration exposure over time. These injuries account for significant lost work time and disability claims.

OSHA Requirements for Hand Protection

OSHA requires employers to protect workers' hands under the general PPE standard (29 CFR 1910.138 for general industry and 29 CFR 1926.95 for construction). The requirements include:

• Hazard assessment: Employers must evaluate the workplace to identify hazards that require hand protection (29 CFR 1910.132(d))
• Appropriate selection: Hand protection must be selected based on the specific hazards present. OSHA does not prescribe a specific glove type but requires the selection to match the identified risk
• Employer-provided PPE: Hand protection must be provided at no cost to employees
• Training: Workers must be trained on when hand protection is required, what type to use, how to properly wear and remove it and the limitations of the protection

Beyond PPE, OSHA's machine guarding standards (29 CFR 1910.212) and lockout/tagout standard (29 CFR 1910.147) directly address the prevention of hand injuries from machinery. Employers must control hazards at the source through engineering controls before relying on gloves as the sole protective measure.

Selecting the Right Work Gloves

Glove selection is one of the most critical decisions in a hand safety program. The wrong glove can be worse than no glove at all - a loose-fitting glove near rotating machinery creates a catch point that can pull the hand into the hazard.

Cut-Resistant Gloves

Cut resistance is rated using the ANSI/ISEA 105 standard on a scale from A1 (lowest) through A9 (highest). Selection depends on the level of cut hazard:

• A1-A3: Light-duty tasks like packaging, general assembly and light material handling
• A4-A6: Medium-duty tasks involving sheet metal, glass handling, stamping operations and automotive assembly
• A7-A9: Heavy-duty tasks involving sharp metal edges, recycling operations and metal fabrication

Chemical-Resistant Gloves

No single glove material resists all chemicals. Selection must be based on the specific chemicals in use:

• Nitrile: Good resistance to oils, fuels, greases and many solvents. Poor resistance to ketones and strong oxidizers
• Neoprene: Broad chemical resistance including acids, bases, alcohols and many solvents
• Butyl rubber: Excellent resistance to ketones, esters and gas/vapor permeation
• PVA (Polyvinyl alcohol): Excellent resistance to aromatic and chlorinated solvents. Dissolves in water
• Viton: Superior resistance to aromatic compounds, chlorinated solvents and petroleum products

Always consult the glove manufacturer's chemical resistance guide and the Safety Data Sheet for the chemicals being handled.

Impact-Resistant Gloves

Impact gloves feature thermoplastic rubber (TPR) padding on the back of the hand and fingers. They are designed for environments where struck-by hazards exist - oil and gas, mining, heavy construction and material handling. Look for gloves tested to ANSI/ISEA 138 for impact protection.

Heat-Resistant Gloves

For thermal hazards, select gloves rated for the specific temperature range. Options range from lightweight heat-resistant liners to heavy-duty welding gauntlets. Ensure the glove maintains dexterity at the protection level needed for the task.

When NOT to Wear Gloves

Gloves should not be worn around certain rotating equipment (drill presses, lathes and grinders) where the glove could catch and pull the hand into the machine. In these cases, engineering controls and safe work procedures are the primary protections.

Engineering Controls for Hand Safety

PPE is the last line of defense. Prioritize these engineering controls to reduce hand injury risk at the source:

• Machine guarding: Point-of-operation guards, interlocked barriers and presence-sensing devices that prevent hands from entering hazard zones
• Push sticks and jigs: Tools that keep hands away from cutting surfaces on table saws, routers and similar equipment
• Safety knives: Self-retracting blades, ceramic blades and concealed-blade cutters that reduce laceration risk during box opening and material cutting
• Ergonomic tool design: Tools with anti-vibration grips, proper handle angles and appropriate sizing to reduce repetitive strain
• Automated material handling: Robotic palletizers, conveyor systems and vacuum lifters that eliminate manual handling of sharp or heavy materials

Building a Hand Safety Program

Step 1: Analyze Your Injury Data

Review your OSHA 300 logs, first aid logs and workers' compensation claims to identify patterns. Which departments, tasks and shifts have the highest hand injury rates? What types of injuries are most common? This data drives your program priorities.

Step 2: Conduct Task-Level Hazard Assessments

Walk the floor and observe every task that puts hands at risk. Document the specific hazards (cut, puncture, chemical, thermal, crush, vibration) and the current controls in place. Identify gaps where controls are missing or inadequate.

Step 3: Select and Standardize PPE

Based on your hazard assessments, select the appropriate glove types for each task. Standardize by creating a glove matrix - a document that maps each task or department to a specific glove type and cut level. This eliminates confusion and ensures consistency.

Step 4: Train Every Worker

Training should cover:

• Specific hand hazards in the worker's area
• How to select the correct glove for the task
• How to inspect gloves before use (check for cuts, holes and degradation)
• Proper glove removal to avoid contamination
• When gloves should NOT be worn
• How to report hand injuries, near misses and hazard observations

Reinforce hand safety awareness throughout the year using toolbox talks focused on seasonal topics, recent near misses and observed behaviors.

Step 5: Track and Respond to Incidents

Every hand injury - no matter how minor - should be reported and documented. First aid cases often reveal hazards that could cause a more serious injury next time. Use a digital incident reporting system to capture injury details, conduct root cause investigations and track corrective actions to completion.

Hand Safety by Industry

Manufacturing

Dominant hazards: machine contact, lacerations from sharp parts and chemical exposure. Focus on machine guarding, cut-resistant gloves and lockout/tagout compliance.

Construction

Dominant hazards: struck-by, caught-between, punctures from nails and wire and tool use. Impact-resistant and cut-resistant gloves are standard PPE.

Oil and Gas

Dominant hazards: struck-by from pipe and iron, pinch points on equipment and chemical burns. Impact gloves are required on most well sites and production facilities.

Food Processing

Dominant hazards: knife cuts, machine contact, cold exposure and repetitive motion. Metal mesh gloves, cut-resistant gloves and thermal liners are common.

Healthcare

Dominant hazards: needlesticks, chemical exposure from cleaning agents and latex allergies. Nitrile exam gloves, sharps engineering controls and proper disposal protocols are essential.

Frequently Asked Questions

What is the most common hand injury at work?

Lacerations and cuts are the most frequently reported hand injuries across all industries. They are also among the most preventable through proper glove selection, safety knife programs and machine guarding.

How do I choose the right cut-resistant glove level?

Match the glove's ANSI cut level to the hazard. Conduct a cut hazard assessment for each task. Light assembly may only require A2, while handling sheet metal or stamped parts may require A5 or higher. When in doubt, consult your glove supplier with specific task descriptions.

Do employers have to pay for work gloves?

Yes. Under OSHA's PPE standard, employers must provide required hand protection at no cost to employees. Exceptions exist for everyday clothing items like winter coats, but task-specific safety gloves are employer-provided.

How often should work gloves be replaced?

Replace gloves when they show visible damage (cuts, holes, thinning material or chemical degradation), when they no longer fit properly or according to the manufacturer's recommended service life. Workers should inspect gloves before every use.

Reduce Hand Injuries Starting Today

A hand safety program only works when it is consistent, documented and data-driven. Make Safety Easy helps you deliver hand safety toolbox talks, track incidents through digital reporting and identify the root causes behind every injury. See our plans to get started.