Gloves are rated A1–A9 under ANSI/ISEA 105, from light packaging and assembly work (A1–A3) through construction and glass handling (A4–A6) up to sharp metal, recycling, and forceful cutting (A7–A9). Our Protuff Shell ANSI A5 covers most of that middle ground — knives, chainsaws, sheet metal — while staying light enough not to fatigue your hand over a full shift. Going higher than you need trades away dexterity for a protection level you're not exposed to, so match the rating to the actual blade or edge you're handling, not the highest number available.

Only if they're specifically built and certified for food contact — most industrial cut-resistant coatings aren't. Our FGC6 is an ANSI A6-rated glove designed for exactly that: mandoline slicers, fish filleting, oyster shucking, and kitchen prep, where you need real cut protection without worrying about what's touching your food.

Impact-resistant gloves add TPR (thermoplastic rubber) or foam padding over the knuckles and back of the hand to absorb blunt-force blows — from swinging tools, dropped equipment, or catching your hand between two hard surfaces. Our Stingray Flex 001 pairs that impact padding with an oil-resistant silicone-dot palm, built for rig floors, heavy machinery, and greasy or oily equipment where grip and knuckle protection both matter.

No — they protect against completely different forces and are rated on separate scales. A glove can be cut-resistant without any impact padding, or impact-rated with only light abrasion resistance underneath. If your task involves both risks — say, sheet metal handling near moving equipment — look for a glove that explicitly lists both a cut level and an impact protection level rather than assuming one covers the other.

TIG welding calls for thin, supple leather — usually goatskin or deerskin — because you need fine tactile control at low amperage. MIG welding sits in the middle: still dexterous, but with a bit more insulation for higher heat and spatter. Stick welding produces the most heat and spatter, so those gloves run thicker and heavier, trading some dexterity for insulation. Kevlar® stitching is worth looking for across all three, since regular thread melts or burns through under sustained heat and sparks long before the leather does.

Yes — laser welding introduces a reflective-hazard and localized-burn risk that a standard leather welding glove isn't specifically tested against, on top of the usual heat and spark exposure. If laser welding or laser cutting is part of your process, check with your equipment manufacturer or safety officer for the specific glove rating your laser class requires, and treat a general-purpose welding glove as a baseline, not a substitute.

Heat-resistant gloves are built to handle sustained conductive or radiant heat — think holding a hot part or working near a furnace opening. Molten metal splash gloves go a step further: they're built to shed a droplet of molten metal before it sticks and burns through, which is a different failure mode than steady heat exposure. Foundry, glasswork, and steel mill environments typically call for the splash-rated version specifically, not just a generic heat-resistant glove.

It varies a lot by construction — aluminized leather and Kevlar-lined gloves are built for close-proximity radiant heat and brief molten splash exposure, not indefinite direct contact with extreme heat. Always check the specific temperature rating printed on the glove or its spec sheet for the exact exposure you're working around, rather than assuming "heat resistant" covers any temperature.

Extrication work — cutting seatbelts, handling jagged sheet metal, gripping hydraulic tools — needs a glove that combines high cut and puncture resistance with real grip in wet or bloody conditions, plus enough dexterity to operate rescue tools quickly. It's a harder combination than most single-hazard gloves are built for, which is why dedicated rescue gloves usually blend a high ANSI cut level with reinforced palms rather than optimizing for cut resistance alone.

Our 16F5F LE is built around goatskin palm for tear resistance, an Armortex + EVA gel knuckle panel for impact protection, and a cool-mesh back panel to keep airflow up during long wear — that combination of impact protection, grip, and breathability is generally what separates a tactical glove from a standard mechanics glove. If trigger control or fine manipulation matters for your role, prioritize a thinner, more supple palm over maximum padding.

Lashing work — securing cargo, rigging, chain and wire rope handling on rigs and vessels — combines oily, wet conditions with real cut and impact risk from taut lines and sharp fittings. A dedicated lashing glove, like water/oil-resistant goatskin lined with Kevlar® aramid for high cut protection plus a TPR back for impact, is built for that specific combination rather than any single hazard in isolation.

Mechanics gloves prioritize dexterity and grip for detailed work with tools and small parts, with lighter protection overall. Oil & gas impact gloves add heavier knuckle and back-of-hand padding plus oil/water resistance for rig floors and heavy equipment, at some cost to fine dexterity. If your day is mostly hand tools and assembly, go mechanics; if it's rig floor, heavy equipment, or exposure to swinging loads, go impact-rated.

General utility gloves — like our 25UWG with a reinforced palm and knuckle protection — are built for everyday handling, light assembly, and DIY tasks where the main risks are abrasion and minor bumps rather than a specific cut, heat, or chemical hazard. Once your task involves a named hazard (a blade, a live circuit, a chemical, extreme temperature), step up to the glove rated for that specific risk instead.

For anyone checking a phone, tablet, or handheld scanner mid-task, it's a real time saver — models like our 25UWG and 23TS use conductive fingertip panels so you don't have to strip off a glove for every notification or scan. It doesn't add or remove any protective rating; it's purely a convenience feature layered onto the glove's existing construction.

Electrical (rubber insulating) gloves are the actual voltage barrier — rated by class for a specific maximum working voltage and tested to that standard. Electrical protector gloves are the tougher leather gloves worn over them, protecting the thin rubber from cuts, punctures, and abrasion that would otherwise compromise the insulation. The two are meant to be worn together as a system, not as alternatives to each other.

No — ordinary leather work gloves aren't tested or rated for dielectric protection, and standard leather offers no reliable insulation against voltage. Work on or near energized equipment requires rubber insulating gloves rated for the voltage class involved, tested and certified for that purpose, with leather protectors over them — not a substitution based on how thick or heavy-duty a glove feels.

Chemical resistance is chemical-specific — a glove material rated for one solvent can degrade almost immediately in another. The manufacturer's chemical resistance chart (matching glove material against specific chemicals, exposure time, and breakthrough time) is the actual source of truth here, not a general "chemical resistant" label. Always check that chart against the exact substance and concentration you're working with.

No — no single glove material handles every chemical family well. Nitrile, neoprene, butyl rubber, and PVC each perform differently depending on the solvent, acid, or oil involved, and a glove that's excellent against one class of chemical can fail quickly against another. If your task involves multiple chemical types, you may genuinely need different gloves for different steps of the process.

Cold-resistant (winter) gloves insulate against ordinary outdoor cold and wind chill for general site work. Waterproof gloves add a sealed barrier to keep hands dry in wet or rainy conditions — useful but not the same as thermal insulation on its own. Cryogenic gloves are a different category entirely, built for direct contact with extremely cold liquids and surfaces like liquid nitrogen, where standard winter gloves would fail almost instantly.

Cryogenic gloves are purpose-built for contact with liquefied gases — commonly down toward the range of liquid nitrogen (around -196°C / -321°F) — using loose-fitting, low-conductivity materials that let you shake off a splash before it soaks in and freezes against the skin. This is specialist PPE outside our standard glove range; if cryogenic handling is part of your operation, get in touch and we'll help source the right rated product.

Needle-stop gloves are built to resist puncture from hypodermic needles specifically — a different, much finer threat than a blade cut, common in waste sorting, sanitation, corrections, and other roles where accidental needle contact is a real risk. They're tested and rated separately from standard cut- or puncture-resistant gloves, since a construction that stops a blade doesn't automatically stop a needle tip.

Abrasive blast media moving at high pressure wears through ordinary glove material fast — sandblasting gloves use thick, tightly-woven or reinforced leather specifically to resist that abrasive erosion, not just general wear and tear. A standard work glove will typically wear through at the fingertips and palm well before a purpose-built sandblasting glove does.

Sleeves extend protection from the wrist up to the elbow or shoulder — cut and abrasion resistance for material handling, heat and molten-metal-splash resistance for foundry and welding work, or impact padding for tasks where the forearm can strike or be struck by equipment. The right sleeve material mirrors the same hazard categories as gloves: Kevlar® and aramid blends for cut and heat, aluminized fabric for molten splash, padded panels for impact.

A gauntlet cuff extends coverage a few inches up the wrist, but it's not a substitute for a full sleeve when the hazard reaches the forearm or elbow — grinding, overhead welding, or handling long stock are typical cases. Pairing a shorter, more dexterous glove with a separate sleeve usually beats one long glove, since it keeps your hand mobility from being compromised by material meant for the arm.

Match the sleeve to the dominant hazard on your task, the same way you would a glove: leather or aramid welding sleeves for spark and heat during welding, Kevlar-knit sleeves for blade and sharp-edge exposure in material handling, and aluminized sleeves specifically where molten metal splash is possible, such as foundry or pouring operations. Using a general-purpose sleeve in a molten-splash environment is a common and dangerous downgrade.

Any time it's worn under an arc-flash hood, welding helmet, or near open flame or sparks — a standard synthetic balaclava can melt onto skin under heat exposure, which is exactly what an FR balaclava is built to resist. If your headwear sits underneath other heat- or arc-rated PPE, it needs to carry a matching rating rather than being chosen for warmth alone.

A neck gaiter is lighter and more versatile — pull it up over the nose and mouth for dust or wind, or wear it loose around the neck without the added heat and coverage of a full balaclava. It's the better choice when you need quick, adjustable coverage through a shift rather than constant full-face protection, while a balaclava suits sustained cold, wind, or heat-layering needs.

A hard hat protects against impact from above; a hood protects the face, neck, and scalp from heat, arc energy, or molten splash — they solve different problems and are often worn together. Welding hoods block UV/IR radiation and sparks, arc-flash hoods are rated in cal/cm² alongside the rest of an arc suit, and aluminized hoods reflect radiant heat in foundry or molten-metal environments.

A face shield adds a clear, rigid barrier against flying particles, splash, or debris — useful for grinding, chemical handling, or sandblasting, where you still need visibility but a fabric hood alone won't stop something solid moving fast toward your face. It's a supplement to head/eye protection, not a replacement for a hard hat or arc-rated hood where those are separately required.

Inherently FR fabric — like our Inherent FR Coveralls — has flame resistance built into the fiber itself, so it doesn't wash out or wear off over the life of the garment. Treated FR fabric starts as a normal fiber with a flame-retardant chemical finish applied afterward, which can degrade with repeated washing or heavy wear. For long-service PPE, inherently FR is generally the more durable choice.

Anyone working around a flash fire or arc flash risk — oil & gas, electrical utilities, chemical processing, welding-adjacent roles — where an ignition source is a real possibility, not a remote one. Standard workwear, including some synthetic fabrics, can actually melt onto skin in a flash fire; FR coveralls are specifically built to self-extinguish and avoid that failure mode.

A standard FR coverall is built to resist ignition and self-extinguish in a flash fire. A molten-metal-rated suit — using aluminized fabric like our GRAYWOLF® aluminized construction — goes further, reflecting radiant heat and shedding molten splashes before they stick and burn through. Foundry, forging, and steel mill work generally requires the aluminized, splash-rated category specifically, not FR fabric alone.

An apron — like our GRAYWOLF® aluminized, Kevlar®-backed Molten Metal & Heat Resistant Safety Apron — covers the front of the torso, which is enough for tasks where the hazard is directly in front of you, like pouring or bench welding. Once the risk surrounds you or involves overhead splash and sparks, a full coverall or jacket-and-pant combination gives coverage an apron simply can't.

A long coat extends coverage down past the waist to the thighs or knees, protecting against splash and radiant heat from below waist height — something a standard jacket or apron doesn't reach. It's typically worn in pouring, tapping, or heavy overhead welding positions where sparks and molten material can fall well below chest level.

A complete kit typically includes an arc-rated jacket and pants (or coverall), an arc-rated hood or face shield with balaclava, arc-rated gloves or leather protectors over insulating rubber gloves, a hard hat, and leather footwear — matched so every piece meets or exceeds the same minimum cal/cm² rating. Our GRAYWOLF® Electric Arc Suits are available at 40, 75, and 100 CAL to match different incident-energy levels.

Layering is standard practice — arc ratings of individual garments generally add together when layered correctly, so a lower-rated shirt under a higher-rated jacket can reach the combined total. What you shouldn't do is treat a single lower-rated piece as sufficient on its own for a task that requires the full suit's rating — the weakest link in the system, not the highest-rated piece, determines your actual protection.

Start with your hazard: steel or composite toe for impact and compression risk, an electrical-hazard (EH) or static-dissipative rating if you're around live circuits or sensitive electronics, and puncture-resistant soles if sharp debris is a concern on-site. In North America, most of these protections are referenced against the ASTM F2413 standard — check the specific footwear's listing for exactly which hazards it covers, since not every safety shoe covers every category.

It's not just marketing, but the rating is specific to a surface and contaminant, not a universal guarantee. Slip resistance is typically measured as a coefficient of friction against a defined test surface (wet tile, oily steel, etc.), so a sole rated highly for wet floors won't necessarily perform the same on an oily industrial floor. Match the tested condition to your actual work surface where possible.

They solve the same basic problem — added grip over your existing safety footwear — but they're not automatically interchangeable. Standard ice cleats use metal or carbide studs for ice and packed snow. Facilities with flammable atmospheres, like oil & gas sites, often require non-sparking cleats specifically, since a standard metal-studded cleat striking a hard surface can generate a spark that a metal cleat in a non-hazardous yard never has to worry about.

Non-sparking traction devices use materials like certain polymer or non-ferrous compounds instead of standard steel studs, specifically to avoid an ignition source in explosive or flammable atmospheres — classified hazardous locations in oil & gas, chemical plants, and similar sites. If your site has a hazardous-area classification, check your facility's PPE policy before assuming a standard metal-studded cleat is acceptable, even if it performs well on ice.