Specifying safety gloves in 2026 starts with mapping the dominant workplace hazard, cut, chemical, thermal, cold, or electrical, against the relevant EN or ANSI/ISEA 105 standard, then matching material, gauge, coating, and PPE Category to that risk [S1][S3].
The four harmonised standards buyers cite most are EN 388 (mechanical: abrasion, cut, tear, puncture), EN 374 (chemical and micro-organism), EN 407 (thermal: contact, convective, radiant heat), and EN 511 (cold: convective cold, contact cold, water permeability) [S1]. In North America, the same cut protection is graded by ANSI/ISEA 105 from A1 (lowest) to A9 (highest), measured by the grams of blade force needed to cut through the material [S3].
EN 388 and ANSI/ISEA 105 mechanical risk
EN 388 rates mechanical protection on four to six codes: abrasion (0–4), cut by ISO 13997 (A–F), tear (0–4), puncture (0–4), with optional EN ISO 13997 cut letter replacing the older coup test on newer CE marks [S1].
ANSI/ISEA 105 cut scoring uses nine levels: A1–A2 cover light assembly and general handling, A3–A4 suit moderate hazards including light glass and sheet metal, and A5–A9 cover blades, sheet metal, glass handling, and demolition work [S3]. For work with a circular saw or other blade-fed tool, the same 2026 reference guidance recommends pairing cut-rated gloves with the saw-specific PPE layer covered in Circular Saw Safety: Kickback, Guards, and PPE Specs for Jobsite Use, where kickback and guard rules are detailed.
EN 374 chemical and EN 407 / EN 511 thermal
EN 374 chemical gloves are now classified by Type A (min. 6 permeation chemicals, level 3, A–L list), Type B (3 chemicals), or Type C (1 chemical), with an optional virus protection suffix after EN ISO 374-5 [S1]. Permeation time at the listed chemical determines the letter code on the mark.
EN 407 grades thermal protection across six codes: abrasion, cut, tear, puncture, then contact temperature (test 250 °C for 15 s minimum for a pass), convective heat, radiant heat, and small splashes of molten metal [S1]. EN 511 grades cold on convective cold, contact cold, and water permeability; in warehouse and cold-store work a 15-gauge brushed Thinsulate or Thermolite lining is the most common inner construction for dexterity plus warmth [S4]. For wider cold-store and pallet-rack PPE context, Warehouse warning tape: spec map for thickness, color, and traffic duty gives the floor-marking spec a buyer pairs with the glove spec.
Material and coating: latex, nitrile, neoprene, leather, HPPE, Kevlar
Material selection is driven by the dominant risk: nitrile, PVC, neoprene, and butyl rubber carry the chemical-permeation data; leather (cowhide, pigskin, goatskin) carries the abrasion and puncture story for general handling; HPPE, Kevlar, and metal-mesh knits carry the cut score [S1][S3].
For coated general-purpose gloves, a knit shell dipped in latex, nitrile, or polyurethane gives the grip and dexterity required in assembly and warehouse work: nitrile resists oils and abrasion, latex grips well on smooth dry surfaces, and polyurethane stays thin enough for touchscreen use [S3]. Glove gauge is the single best proxy for dexterity: an 18-gauge featherweight liner with a recycled PET yarn shell is now common in the carbon-footprint-conscious logistics line launched in 2026, and 15-gauge shells dominate the cut-A nylon segment [S4]. Leather grade matters: cowhide is the all-purpose standard, pigskin breathes and stays soft after wetting, and goatskin is the most dexterous of the three [S3].
EU PPE Categories and the chemical / cut crossover
EU PPE Regulation splits gloves into three risk classes: Category I for minimal risks, Category II for intermediate industrial tasks (mechanical and thermal), and Category III for serious or irreversible risks including chemical permeation and high-cut hazards, which require third-party notified-body certification and the EN 374 / EN 388 pluses for the chosen chemical list [S1].
Buyers specifying chemical-and-cut crossovers (e.g. oil-coated stamped-metal work) should require both an EN 388 cut letter and an EN 374 Type A mark on the same glove, because the chemical-resistant coating and the cut-resistant knit liner are two different construction layers and a glove optimised for one will often underperform on the other. The crossover is the case where a 2026 sourcing decision most often fails, because the marketing text highlights the cut letter while the permeation data is buried in the technical file.
Disposable vs reusable: latex, nitrile, vinyl
Disposable nitrile, latex, and vinyl gloves are used for hygiene, frequent changeover, and fine work; reusable coated or leather gloves carry the mechanical, thermal, and chemical permeation certifications [S1][S3].
Powdered disposables remain in use for short-duration, low-risk tasks, but 2026 guidance flags powder contamination, latex allergy risk (Type I sensitisation), and thin-material failure modes for any heavy-duty, chemical, or high-risk duty [S1]. Vinyl is the lowest-cost option with the weakest chemical resistance; nitrile is the default in labs, light maintenance, and food handling because it balances cost, allergen profile, and broad chemical compatibility.
Sizing, fit, and total cost of ownership
Sizing rule: measure around the widest part of the palm just below the knuckles in inches; that number approximates the glove size, and a 9-inch palm reads as a Large [S3]. Length is measured from the base of the palm to the tip of the middle finger; most work gloves run Small through 2XL, and buyers wearing a thermal or cut liner underneath should size up one notch [S3].
For buyers operating a fleet of forklifts and skid steers, the glove spec is one line item in a wider PPE bundle, and the Skid Steer Loader Safety: Mandatory Devices, Training Rules, and Operating Pitfalls reference is the matching doc for the machine side of the same operator.
Who should NOT pick the cheapest disposable nitrile
Disposable nitrile is the wrong pick for any task involving: ISO 13997 cut letter above C, EN 374 Type A permeation list, EN 407 contact temperature above 100 °C, EN 511 water-permeation pass, or puncture risk from hypodermic or wire [S1][S3]. The reasons are mechanical: thin single-use shells cannot hold the gauge needed for cut resistance, the polymer film permeates long before the breakthrough time printed on a Type A glove, and the elastic cuff cannot maintain a thermal seal.
The wrong-shoe cases: do not specify latex in food or laboratory settings where Type I allergy screening has not been run; do not specify powdered gloves in paint booths, cleanrooms, or near uncured resin work because powder contaminates finishes; do not specify PU-coated gloves for solvent-heavy environments because polyurethane swells and loses grip in aromatic and ketone solvents. For a 2026 fleet buyer, the shortlist logic is: define the dominant hazard, write the EN or ANSI code on the purchase order, then sample two SKUs per code for a 2-week wearer trial before volume commit.
Trackable signals into the next quarter: EN ISO 13997 letter adoption on EN 388 marks (replacing the older coup test where 2026 stock turns over), expansion of recycled-PET 18-gauge shells into EN 388 cut-C and above, and notified-body audits tightening on Category III chemical permeation data sheets.
For component-level specifications, see safety gloves, linear guide, and crossed roller guide.