What are anti-vibration gloves and do they actually prevent HAVS?

Short answer: Anti-vibration gloves use gel, viscoelastic foam, or air-cell palm padding to reduce vibration transmitted from power tools to the hand, and to be certified they must pass ISO 10819. The catch is that they mainly attenuate high-frequency vibration and do little for the low frequencies that dominate heavy tools like breakers and rammers. NIOSH and ACGIH treat them as a supplement to hand-arm vibration syndrome (HAVS) prevention, not the primary control, which is lower-vibration tools, limited trigger time, and warm, dry hands.

Anti-vibration gloves guide: ISO 10819 and HAVS prevention (2026 Guide)

Hand-arm vibration syndrome (HAVS) is a permanent, progressive injury caused by prolonged exposure to vibration from power tools, and anti-vibration gloves are one layer of defense against it. The marking standard for these gloves is ISO 10819, which defines a laboratory test and pass/fail transmissibility limits a glove must meet before it can be sold as anti-vibration. NIOSH documents HAVS — including vibration white finger, a form of secondary Raynaud's — among grinder, jackhammer, impact-wrench, chainsaw, sander, and drill operators, and OSHA's hand-protection rule at 29 CFR 1910.138 requires employers to assess and address hazards like vibration when selecting hand protection.

This guide decodes what the ISO 10819 marking actually proves, explains the critical limitation that anti-vibration gloves damp high-frequency vibration but not the low frequencies that dominate heavy breakers and rammers, and shows where gloves fit in the real control hierarchy alongside impact-resistant gloves for back-of-hand protection. The goal is a crew that uses gloves correctly without mistaking them for a cure.

Why this matters.
HAVS is irreversible: prolonged power-tool vibration can cause permanent numbness, tingling, loss of grip strength, and blanching of the fingers (vibration white finger), and there is no treatment once nerve and vascular damage sets in. That is why NIOSH and the ACGIH hand-arm vibration TLV stress dose reduction at the source — tool choice, trigger-time limits, and maintenance — rather than relying on gloves alone. Treating an ISO 10819-marked glove as full protection is the most common and most dangerous misreading of the standard, because the glove does almost nothing for the low-frequency energy that drives the worst heavy-tool exposures.

Part 1 — What HAVS is and what causes it

Hand-arm vibration syndrome is an umbrella term for the vascular, nerve, and musculoskeletal damage caused by transmitting tool vibration into the hand and arm over months and years. It develops slowly and is permanent once established, so prevention is the only effective strategy. The injury is dose-driven: it depends on vibration magnitude and how long the hand is exposed.

Vibration white finger (secondary Raynaud's)

The most recognized sign of HAVS is vibration white finger — a form of secondary Raynaud's in which fingers blanch white, then turn blue and red as circulation returns, often triggered by cold. Workers also report numbness, tingling, and a loss of grip and dexterity that makes fine work and safe tool handling harder.

Which tools cause it

The high-risk tools are grinders, jackhammers and breakers, impact wrenches, chainsaws, sanders, and drills. Any tool that vibrates the hand for long, repeated periods contributes to the cumulative dose, which is why crews who run material handling and trade tasks across a full shift need an exposure plan, not just gloves.

Part 2 — What ISO 10819 actually certifies

ISO 10819 is the test and marking standard for anti-vibration gloves. It does not rate a glove on a scale; it is pass/fail. To be marketed as anti-vibration, a glove must transmit measurably less vibration to the hand than bare skin across two defined frequency bands when tested on a vibrating handle.

The two transmissibility limits

A glove passes only if its medium-frequency transmissibility (TRM, roughly 31.5–200 Hz) is no greater than 0.90 AND its high-frequency transmissibility (TRH, roughly 200–1250 Hz) is no greater than 0.60. A transmissibility below 1.0 means the glove passes less vibration than the bare hand at those frequencies; the glove must beat both thresholds at once.

How the palm padding works

The attenuation comes from a resilient palm layer — gel, viscoelastic foam, or air-cell padding — that absorbs and dissipates vibration energy before it reaches the hand. Different materials trade comfort, durability, and dexterity, and the padding is concentrated where the palm and fingers grip the tool.

Source: ISO 10819 (anti-vibration glove test and marking). Transmissibility below 1.0 means the glove passes less vibration than the bare hand.

Part 3 — The critical low-frequency limitation

This is the most important fact in the guide: anti-vibration gloves mainly attenuate HIGH-frequency vibration and do very little for LOW-frequency vibration. Many of the heaviest tools — pneumatic breakers, jackhammers, plate compactors, and rammers — produce their damaging energy at low frequencies, exactly where the glove is weakest. ISO 10819 does not even certify performance below the medium band.

Why gloves are a supplement, not a control

Because the glove cannot meaningfully cut low-frequency dose, NIOSH and the ACGIH hand-arm vibration TLV treat gloves as a supplementary measure. The real reductions come from engineering and administrative controls: lower-vibration tools, shorter trigger and exposure time (duty cycle), and tool maintenance. A glove that gives a worker false confidence to run a breaker longer can increase HAVS risk.

The full control hierarchy

Effective programs choose lower-vibration tools first, then limit trigger time per worker, keep tools maintained (sharp bits, balanced and dressed grinding wheels), keep hands warm and dry to protect circulation, rotate tasks, and follow the ACGIH TLV for hand-arm vibration. Gloves sit at the bottom of that hierarchy, not the top.

Part 4 — ISO 10819 vs. ANSI/ISEA 105 and impact gloves

Vibration reduction is also addressed in ANSI/ISEA 105, the U.S. hand-protection standard, and many work gloves combine vibration damping with cut and impact protection in one product. Understanding which standard covers which hazard keeps buyers from over- or under-specifying.

Where ANSI/ISEA 105 fits

ANSI/ISEA hand-protection standards classify gloves across multiple hazards; ANSI/ISEA 105 includes a vibration-reduction property, while ANSI/ISEA 138 specifically rates back-of-hand impact protection. The European EN 388 standard separately covers cut, abrasion, tear, and puncture, so a single glove may carry several marks at once.

Combination gloves

For demolition and concrete crews, a glove that pairs anti-vibration palm padding with knuckle impact armor and a cut-resistant shell is common. Cross-check the cut rating against ANSI/ISEA 105 cut levels so you are not trading vibration comfort for a thin, easily cut palm. Cut-rated work gloves such as the Ergodyne ProFlex 7000 A2 cut work glove or the higher-rated Ergodyne ProFlex 7022 A4 cut-resistant glove show how a single glove can carry both cut and grip features, and the full cut-resistant gloves guide explains how to balance protection against dexterity.

Part 5 — Fit, grip, and grip force

Fit is a performance variable, not just a comfort one. An oversized glove forces the worker to squeeze harder to hold the tool, and higher grip force pushes more vibration into the hand — partially defeating the glove. A glove that is too thick can have the same effect by reducing control. The right size lets the hand grip lightly while the padding sits flat against the tool handle.

Sizing and dexterity

Choose the smallest size that still fits without bunching, confirm the padding covers the palm and the gripping surface of the fingers, and verify the worker can still operate triggers and controls. For lighter assembly and material handling work, a thinner damping glove may preserve dexterity better than a heavy gel pad. Snug-fitting coated work gloves such as the Ergodyne ProFlex 7000 nitrile-coated work glove or the touchscreen-friendly Ergodyne ProFlex 7001 PU-palm touchscreen glove illustrate the low-bulk grip that keeps grip force down. Where heat is also present, confirm the glove is rated for it in the heat-resistant gloves range rather than assuming a damping pad covers it.

Part 6 — Maintenance, inspection, and replacement

Anti-vibration padding degrades. Gel and foam compress and harden with use, and a glove with crushed or torn palm padding no longer meets its tested transmissibility. Inspect the palm regularly, replace gloves when the padding is flattened or split, and keep them dry — wet, cold gloves chill the hands and worsen circulation, which is the opposite of what HAVS prevention needs.

Part 7 — Worked example: cutting HAVS risk for a grinder-and-breaker crew

A concrete crew runs angle grinders for surface prep and a pneumatic breaker for demolition across an eight-hour shift. Here is how anti-vibration gloves fit into a real exposure-reduction plan, with gloves as one layer rather than the fix:

1. Assess the vibration dose first. Identify which tools and tasks dominate the daily exposure. The breaker produces heavy low-frequency vibration that gloves barely touch, while the grinder adds higher-frequency energy that gloves can help with. This split tells you gloves help the grinder operators more than the breaker operator.
2. Reduce dose at the source. Choose lower-vibration or anti-vibration-handled tools where available, keep grinder wheels balanced and dressed and breaker bits sharp, and isolate worn tools that vibrate excessively. Source control cuts dose for every worker regardless of gloves.
3. Limit trigger time per worker. Rotate operators so no one runs the breaker for long continuous periods, and schedule the highest-vibration tasks across more people. Shorter trigger time per person directly lowers the cumulative HAVS dose against the ACGIH hand-arm vibration TLV.
4. Add anti-vibration gloves as a supplement. Issue ISO 10819-marked anti-vibration gloves for grinding and other higher-frequency work where the padding actually helps, and pair them with impact-resistant gloves on demolition for knuckle protection. Fit them snugly so grip force stays low.
5. Keep hands warm and dry. Provide a warm break area and dry spare gloves; cold, wet hands constrict circulation and accelerate vibration white finger. Warm, dry hands are a free and effective HAVS control.
6. Inspect, train, and replace. Train the crew that gloves are one layer, inspect palm padding for compression and tears, and replace gloves once the gel or foam is flattened. Keep spares on hand — durable shift gloves like the Ergodyne ProFlex 7021 hi-vis cut-resistant work glove for roadside crews, or general-duty pairs from the trade gloves range, keep operators in serviceable gloves between AV-glove replacements.

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The same dose-first logic applies to any vibrating-tool task: control the source, limit the time, and treat the glove as the last layer. Match each task to the right glove from the hand protection catalog and cross-check hazards with the OSHA 1910.132 PPE hazard-assessment guide before you buy.

Frequently asked questions

What are anti-vibration gloves?

Anti-vibration gloves use gel, viscoelastic foam, or air-cell palm padding to reduce the vibration transmitted from power tools into the hand. To be certified, they must pass ISO 10819, which proves they pass less vibration than the bare hand across two frequency bands. Browse the anti-vibration gloves range for examples.

What is ISO 10819?

ISO 10819 is the international test and marking standard for anti-vibration gloves. It is pass/fail: a glove must have a medium-frequency transmissibility (TRM) of 0.90 or less and a high-frequency transmissibility (TRH) of 0.60 or less. Both limits must be met before a glove can be marketed as anti-vibration.

What do TRM and TRH mean?

TRM is the transmissibility in the medium-frequency band (about 31.5–200 Hz) and must be 0.90 or less; TRH is the transmissibility in the high-frequency band (about 200–1250 Hz) and must be 0.60 or less. Transmissibility below 1.0 means the glove passes less vibration than the bare hand at those frequencies.

Do anti-vibration gloves actually prevent HAVS?

They help but do not prevent it on their own. Anti-vibration gloves mainly attenuate high-frequency vibration and do little for the low frequencies that dominate heavy tools like breakers and rammers. NIOSH and the ACGIH treat them as a supplement to tool selection, limited trigger time, and warm, dry hands, which are the primary controls.

What is HAVS?

Hand-arm vibration syndrome (HAVS) is permanent vascular, nerve, and musculoskeletal damage from prolonged power-tool vibration. It can cause numbness, tingling, loss of grip strength, and blanching of the fingers, and it is irreversible once established. Prevention through dose reduction is the only effective strategy.

What is vibration white finger?

Vibration white finger is a form of secondary Raynaud's caused by vibration exposure, in which the fingers blanch white and lose circulation, often triggered by cold. It is one of the most recognized signs of HAVS and signals that vascular damage has already begun.

Which tools cause hand-arm vibration syndrome?

Grinders, jackhammers and breakers, impact wrenches, chainsaws, sanders, and drills are the main culprits. Any tool that vibrates the hand for long, repeated periods adds to the cumulative dose. Crews running these tools daily need an exposure plan, not just gloves.

Why don't anti-vibration gloves work on jackhammers and breakers?

Because those heavy tools produce most of their damaging energy at low frequencies, and anti-vibration gloves mainly damp high-frequency vibration. ISO 10819 does not even certify performance below the medium band, so a glove can pass the standard and still do little for a breaker. The fix is lower-vibration tools and limited trigger time.

Are anti-vibration gloves the primary control for vibration?

No. The primary controls are choosing lower-vibration tools, limiting trigger and exposure time, maintaining tools, and keeping hands warm and dry, all guided by the ACGIH hand-arm vibration TLV. Gloves sit at the bottom of the control hierarchy as a supplement, not the main defense.

Does ANSI/ISEA 105 cover vibration?

Yes. ANSI/ISEA 105 includes a vibration-reduction property among its hand-protection classifications, while ANSI/ISEA 138 specifically rates back-of-hand impact protection. Many work gloves combine vibration damping with cut and impact ratings, so check the ANSI/ISEA hand-protection standards to read all the marks.

What palm material is best for anti-vibration gloves?

Anti-vibration gloves use gel, viscoelastic foam, or air-cell padding, and each trades comfort, durability, and dexterity differently. Gel tends to be more durable, foam can be lighter and more dexterous, and air-cell padding distributes load. The best choice depends on the tool and how much fine control the task needs.

Does glove fit affect vibration protection?

Yes, strongly. An oversized glove forces the worker to grip harder, and higher grip force pushes more vibration into the hand, partially defeating the padding. Choose the smallest size that fits without bunching so the hand can grip lightly while the palm padding sits flat on the tool.

Can I use cut-resistant gloves for vibration?

Only if they are also rated for vibration. Cut resistance and vibration damping are separate properties; a cut glove with no resilient palm padding will not pass ISO 10819. Many demolition gloves combine both, so verify the vibration marking and check the cut level against ANSI/ISEA 105 cut levels.

How often should anti-vibration gloves be replaced?

Replace them when the palm padding is compressed, hardened, or torn, because crushed gel or foam no longer meets the tested transmissibility. Inspect the palm regularly and keep gloves dry, since wet, cold gloves chill the hands and worsen the circulation problems HAVS prevention depends on.

What does OSHA require for vibration and hand protection?

OSHA's hand-protection rule at 29 CFR 1910.138 requires employers to select gloves based on a hazard assessment, which includes vibration, and the general PPE rule at 1910.132 requires that hazard assessment in the first place. See our OSHA 1910.132 PPE guide for how that assessment works.

How can a crew reduce HAVS risk beyond gloves?

Choose lower-vibration tools, rotate operators to limit trigger time, keep tools maintained with sharp bits and balanced wheels, keep hands warm and dry, and follow the ACGIH hand-arm vibration TLV. Pair these with ISO 10819 gloves on higher-frequency tasks for a layered program rather than relying on gloves alone.

Should breaker operators wear impact gloves or anti-vibration gloves?

Both serve different purposes. Anti-vibration gloves help most on higher-frequency tools and do little for a breaker's low-frequency energy, while impact-resistant gloves protect the back of the hand from struck-by hazards. For demolition, prioritize source controls and trigger-time limits, and choose gloves for the protection the task actually needs.

Further reading on this site

• Anti-vibration gloves — gel and foam-palm gloves for power-tool operators.
• Impact-resistant gloves — back-of-hand knuckle armor for demolition and concrete work.
• Cut-resistant gloves — ANSI/ISEA 105 cut protection often combined with vibration damping.
• Impact-resistant gloves and ANSI/ISEA 138 — how back-of-hand impact protection is rated.
• EN 388 glove standard explained — the cut, abrasion, tear, and puncture marks on work gloves.
• Ergodyne ProFlex 7001 nitrile-coated glove — a low-bulk grip glove that keeps grip force down on vibrating tools.
• Ergodyne ProFlex 7022 cut-resistant work glove — combines cut protection with a grippy nitrile-coated palm.
• Ergodyne ProFlex 7021 hi-vis A3 work glove — hi-vis A3 cut glove for roadside and low-light crews.