The Complete Guide to Industrial Safety Gloves in Malaysia (2026)

Hand injuries are among the most common categories of workplace injury in Malaysia. DOSH-linked data reported by national media shows hand injury cases rising from 4,651 in 2021 to 6,788 in 2022 and 7,109 in 2023, while the wider category of upper-limb injuries (fingers, hands and shoulders) accounted for roughly 13,670 of the 38,950 total occupational injury cases recorded in 2023, around 35 percent of all reported injuries that year. Sub-sectors including timber processing, steel milling, glove manufacturing itself, and commercial bakeries show a disproportionate share of finger-related accidents.

This guide covers how to read the standards printed on a glove, how to match material and construction to the hazard actually present, how Johor's major industrial sectors differ in what they need, and how to keep gloves compliant and effective once they're issued.

The Legal Basis for Glove Selection in Malaysia

Section 15(1) of the Occupational Safety and Health Act 1994 (OSHA 1994) places a general duty on employers to ensure, so far as practicable, the safety, health and welfare of employees, which includes providing PPE appropriate to the hazard where the hazard cannot be eliminated by other means. Following the Occupational Safety and Health (Amendment) Act 2022, in force since 1 June 2024, the maximum penalty for failing to provide suitable PPE rose from RM50,000 to RM500,000, with imprisonment of up to two years also available.

Section 52 of OSHA 1994 as amended, allows directors, managers, compliance officers, partners, and other persons responsible for a company's management to be personally prosecuted when the company commits an OSHA offence, with the burden shifted onto that individual to show they did not know of, did not consent to, and took reasonable precautions against the breach. This is a general liability provision that applies to OSHA offences broadly, not a rule specifically triggered by glove selection. It does mean, however, that a documented, hazard-appropriate glove selection process is one of the more straightforward ways a manager can demonstrate the “reasonable precautions” the law expects, since the alternative, an undocumented, ad-hoc glove choice, is much harder to defend after an incident.

A Hazard Identification, Risk Assessment and Risk Control (HIRARC) exercise covering hand hazards at each task is the practical mechanism for this. Selecting a glove because it is the one already in the store, rather than because a documented assessment identified it as appropriate for the task's specific cut, chemical, thermal, or impact hazard, is the gap DOSH inspectors and post-incident investigations most often find.

Understanding Glove Standards: What the Markings Actually Mean

Every certified protective glove carries markings tied to specific test standards. Malaysian buyers can rely on gloves certified to European (EN), American (ANSI/ISEA), or ISO standards; DOSH-SIRIM certification exists for some categories, but gloves tested and certified to these international standards are generally accepted in Malaysian workplaces without requiring a separate SIRIM mark, provided the certificate is valid and available on request.

EN ISO 21420: The Base Standard Behind Every Glove

EN ISO 21420 (which replaced the older EN 420) is the general-requirements standard sitting underneath every other glove standard. It does not test protective performance itself; instead it sets baseline requirements for glove design, sizing, comfort, dexterity, and harmlessness to the wearer (including limits on pH and chromium VI content, relevant to dermatitis risk). A glove cannot be validly rated under EN 388, EN 374, or any other performance standard without also meeting this baseline.

EN 388: Mechanical Risks

EN 388 is the standard most Malaysian safety officers check first, since it covers the everyday mechanical hazards, abrasion, cutting, tearing, and puncture, that most industrial gloves face.

The Coup test blade dulls quickly against modern high-performance yarns containing glass or steel fibre, which produces unreliable results at the higher end of the scale. This is why EN 388:2016 added the ISO 13997 (TDM) test alongside it: a glove rated, for example, “4X44F” shows an “X” (invalid/untested) Coup result but an “F” TDM result, the more trustworthy figure for genuinely high-risk cutting tasks. When comparing gloves for a high-cut-risk task, the ISO 13997 letter grade is the more reliable figure to specify against.

ANSI/ISEA 105: The American Alternative, and Why It Doesn't Convert Directly

Gloves imported from or specified against American standards may carry an ANSI/ISEA 105 cut rating (A1 to A9) instead of, or alongside, an EN 388 rating. Both use the same TDM-100 testing machine, but ANSI/ISEA 105 reports the result in grams of cutting load while EN 388's ISO 13997 letter grade reports it in Newtons of force, and the pass thresholds are not set at equivalent points. A glove cannot validly claim an ANSI A3 rating on the basis of an EN ISO cut Level C result, or vice versa, without separate testing to each standard. If a specification calls for one system, insist on a certificate in that system rather than an approximate conversion.

EN 374: Chemical and Micro-organism Resistance

EN 374:2016 classifies chemical-resistant gloves into three types based on permeation resistance against a panel of 18 standard test chemicals (increased from 12 under the earlier 2003 version), with an added degradation test:

Crucially, EN 374 certification is chemical-specific, not universal. A Type A glove rated against sulphuric acid is not automatically rated against a solvent it was never tested with. Always check the specific chemical list on the certificate against what your workers actually handle, not just the letter grade.

EN 511: Cold Protection

For cold-store, cold-chain logistics, and refrigerated warehouse work, which is a growing sector in Johor's logistics corridor, EN 511 rates gloves on convective cold resistance, contact cold resistance, and water permeability, each on a numeric scale, and is worth specifying separately from mechanical or chemical ratings since a glove can be excellent against cuts and still inadequate against sustained cold contact.

Choosing the Right Material: Liner and Coating Together

A safety glove is two components working together: a liner that provides the structural protection (cut, heat, or static resistance) and a coating that provides grip, chemical resistance, or abrasion protection on the working surface. Matching both to the task matters more than either alone.

Polymer Coatings

Nitrile is the most widely used coating across Malaysian factories: strong oil resistance, no natural latex allergy risk, and roughly three times more puncture-resistant than natural rubber, which is why it has largely displaced rubber-coated gloves in general industrial use.

Neoprene handles a broader range of acids, alcohols, and solvents than nitrile, making it a common choice for chemical handling tasks in Pasir Gudang's petrochemical cluster, though as EN 374 makes clear, the specific chemical list still needs checking rather than assumed from the material name alone.

Polyurethane (PU) coatings are thin and breathable, the standard choice for electronics assembly work where tactile feedback and dexterity for handling small components matter more than heavy-duty resistance.

High-Performance Liners

HPPE (high-performance polyethylene) fibre is around fifteen times stronger than steel by weight and forms the base of most modern cut-resistant gloves: lightweight, flexible, and cooler to wear than older steel-fibre-reinforced designs.

Aramid fibre (including Kevlar®) adds thermal resistance alongside cut resistance, useful for tasks combining a cut hazard with heat exposure up to roughly 350°C, such as sheet metal work near welding operations.

Carbon or silver thread woven into a glove dissipates static safely and is standard in ESD-controlled environments such as semiconductor and data centre work, where an uncontrolled static discharge can damage sensitive components even though it poses no injury risk to the worker.

Glove Selection by Industry: Johor's Key Sectors

Johor's industrial base is genuinely varied, and the right glove specification differs meaningfully between sectors, even where the underlying standards are the same.

Fit, Sizing and Wearability

A glove that does not fit will not be worn consistently, and inconsistent use is functionally the same as no PPE programme at all. Gloves are generally sized 6 (XS) through 11 (XXL), and the correct size matters as much as the correct material: too tight causes hand fatigue and cramping over a shift, too loose creates a snag hazard around moving machinery and rotating equipment.

In Malaysia's heat and humidity, breathability directly affects compliance rather than just comfort. Workers are measurably more likely to keep gloves on for the full shift when they are not sweating inside them, which makes open-back designs and moisture-wicking liners a genuine safety consideration, not just an ergonomic nicety.

Care, Inspection and Replacement

Reusable mechanical and cut-resistant gloves, particularly HPPE-lined designs, can be laundered and reused many times, which meaningfully reduces cost per use over disposable alternatives. A short pre-shift inspection catches most degradation before it becomes a hazard:

• Check for holes or thinning, especially in the finger crotch area, where wear concentrates first.
• Look for peeling, cracking, or flaking on the coating, a sign that grip and abrasion performance is declining.
• Feel for unusual stiffness, which can indicate chemical contamination that has degraded the material from the inside.
• Note any persistent odour, which can signal bacterial buildup inside a glove that isn't drying fully between uses.
• Check the wrist cuff for elasticity; a stretched-out cuff no longer seals against contamination entry.

For laundering, wash reusable mechanical gloves at around 40°C with a mild detergent and air-dry rather than machine-dry. Dryer heat can melt nitrile coatings and shrink HPPE fibres, degrading exactly the protection the glove was bought for.

Common Mistakes in Glove Selection and Use

• Choosing by what's in stock, not by the HIRARC output for the task. This is the single most common finding in post-incident reviews.
• Treating an EN 374 chemical rating as universal. A Type A glove is only rated against the specific chemicals it was tested with; check the CSDS against the actual certificate.
• Assuming ANSI and EN cut ratings convert directly. They use different units and thresholds; a stated "equivalent" without separate certification isn't a valid substitute.
• Using leather gloves for chemical handling. Leather is porous and absorbs chemicals, holding them against the skin rather than blocking them, which can worsen a chemical burn rather than prevent one.
• Ignoring fit in favour of a single site-wide size. Poor fit is one of the most common reasons workers stop wearing issued gloves.
• Machine-drying reusable gloves. Dryer heat degrades nitrile coatings and HPPE fibres well before their rated lifespan.
• No documented reassessment when the task changes. A glove selected correctly for one task is not automatically correct when a worker is reassigned to a different one.

Haisar's Hand Protection Range

Haisar Supply and Services stocks a full hand protection range across every category covered in this guide, organised to match task-based selection rather than a single generic catalogue:

• Disposable gloves for general handling, food contact, and low-risk tasks — note that disposable gloves stocked for infection control in a first aid box are a separate procurement decision from disposable gloves issued for general handling tasks, even though the product looks similar
• Chemical-resistant gloves, including neoprene gauntlet gloves and nitrile gauntlets for chemical and liquid handling
• Cut protection gloves, including cut level 5 gloves with PU palm coating for higher dexterity cutting tasks
• Synthetic nitrile dipped gloves for combined impact and cut environments
• Mechanical and multi-purpose gloves for general industrial handling
• Leather gloves, including welding and general-purpose leather options, for mechanical and heat-adjacent tasks
• Special purpose gloves, including cold-resistant options such as our thermal-lined range
• Hand accessories, including glove clips and retention accessories to reduce loss and encourage consistent use

Shop by Hazard: Glove Category to Standard Quick-Reference

The table below maps Haisar's hand protection subcategories directly to the standard or rating each is typically specified against, so a safety officer working from a HIRARC output can go straight to the right subcategory rather than browsing by product type.

The last row is worth emphasising on its own: voltage-rated insulating gloves for electrical work are a completely different product, tested to a completely different standard (IEC 60903, not EN 388 or EN 374), from every other glove in this guide. Choose products by the hazard your HIRARC identifies, not by whichever subcategory looks closest on a catalogue page. For workplaces also managing electrical hazard exposure, see our guide to electrical safety PPE, since voltage-rated insulating gloves are a separate product category from mechanical and chemical hand protection and are frequently confused with it.

A Note on Emerging Glove Technology

RFID-tagged gloves are being used by some larger facilities to automate inspection tracking and inventory management, which is a genuinely useful operational improvement for large PPE programmes. Biodegradable nitrile disposable gloves are also entering the market, with manufacturers citing ASTM D5511 accelerated-landfill testing showing significantly faster breakdown than standard nitrile. This claim is real but contested: the related ASTM D5526 test method has been withdrawn by ASTM International over concerns it does not reflect real landfill conditions, and anaerobic biodegradation of any material in a landfill also generates methane, a potent greenhouse gas, which complicates the straightforward "better for the environment" framing some marketing uses. Treat specific degradation timeframes as manufacturer-reported until backed by independent, current-standard testing, rather than as settled fact.

Glove Selection Checklist

Frequently Asked Questions

Is a Level 5 cut rating the same as an ISO cut Level F?

No. Level 5 comes from the older Coup (blade) test under EN 388; Level F comes from the newer ISO 13997 (TDM) test, which is more reliable for high-performance cut-resistant materials because the Coup test blade dulls quickly against them. For genuinely high-risk cutting work, ask for the ISO 13997 letter grade specifically rather than relying on the Coup level alone.

Can leather gloves be used for chemical handling?

No. Leather is porous and absorbs chemicals rather than blocking them, which holds the chemical against the skin and can worsen a burn. Nitrile or neoprene gloves rated to EN 374 for the specific chemical involved are the correct choice.

Do safety gloves need SIRIM certification to be used in Malaysia?

Not necessarily. Gloves certified to internationally recognised standards such as EN 388, EN 374, or ANSI/ISEA 105 are generally accepted in Malaysian workplaces without a separate SIRIM mark, provided a valid test certificate is available. DOSH-SIRIM certification does exist for some categories and specific product lines.

Is HIRARC actually required before selecting gloves?

Yes, in substance. OSHA 1994's general duty requires PPE to be appropriate to the hazard, and a documented HIRARC process is the standard way employers demonstrate that a specific glove was selected for a specific, identified hazard rather than chosen arbitrarily. This also matters for the personal liability provisions under Section 52 of OSHA 1994, where documented reasonable precautions are the main defence available to a manager or director.

Are ANSI and EN cut ratings interchangeable?

No. Both use the same TDM-100 test machine, but ANSI/ISEA 105 reports cut resistance in grams of cutting load (A1 to A9) while EN 388's ISO 13997 grade reports it in Newtons of force (A to F), with different pass thresholds. A glove needs to be separately tested and certified to whichever standard your specification calls for.

What is the difference between EN 374 Type A, B, and C?

Type A gloves resist at least 6 of the standard test chemicals for a minimum of 30 minutes each, the highest general protection level. Type B resist at least 3 chemicals for 30 minutes each. Type C resist at least 1 chemical for only 10 minutes, suitable for brief, low-risk exposure only. The rating is specific to the chemicals actually tested, not a general guarantee.

How often should industrial safety gloves be replaced?

There is no fixed calendar interval; replacement should be triggered by condition, not age alone. Replace at the first sign of holes, coating breakdown, unusual stiffness, persistent odour, or a stretched cuff, whichever comes first, and always after a single use in a task the glove was not rated for.

Are biodegradable nitrile gloves as protective as standard nitrile?

Manufacturers generally claim equivalent protective performance while the material biodegrades faster under accelerated landfill testing. The protective claims are generally sound if backed by the same EN/ANSI certification as standard gloves, but the specific biodegradation timeframes quoted in marketing should be treated cautiously, since the underlying test methods are contested and one related standard has been withdrawn by ASTM International.

What glove material is best for semiconductor and electronics work?

Thin polyurethane-coated gloves with carbon or silver thread for ESD control are standard, since they preserve the dexterity needed for small components while safely dissipating static that could otherwise damage sensitive electronics.

Are the disposable gloves in a first aid box the same as general-purpose disposable work gloves?

They serve different purposes even when the product looks similar. First aid box gloves exist to protect the first aider from bloodborne pathogen exposure under Universal Precautions, per DOSH's first aid guideline; general-purpose disposable gloves are selected against a task's actual hazard profile like any other glove in this guide. See our first aid kit requirements guide for what belongs in the first aid box specifically.

Conclusion

The right glove is the one matched to a specific, documented hazard assessment for the task at hand, not the one already sitting in the store cupboard. Reading the standard markings correctly, matching material to the actual hazard rather than a general category, getting sizing right so gloves are actually worn, and maintaining them properly closes most of the gap between having a glove programme and having an effective one.

If you're reviewing hand protection across a site or project, our team can help match glove specifications to your HIRARC findings across cut, chemical, impact, thermal, and ESD hazards. Request a quotation or send us your requirement list directly, and we'll help you specify by hazard rather than by catalogue page.

Haisar Supply and Services Sdn Bhd (985158-T) | Kulai, Johor, Malaysia | www.haisar.com