
A practical sourcing guide to anti-slip gloves for oily parts handling, covering sandy nitrile, micro-foam nitrile, 13G and 15G liners, EN 388 testing, realistic MOQ, price and where common glove builds fail.
If the part is oily, smooth PU is usually the wrong answer
When buyers say they need a glove for oily parts, they often start from the wrong sample: a light PU palm assembly glove. PU is clean, thin and dexterous, but on stamped steel, machined aluminium or parts with light cutting oil, standard smooth PU usually loses grip too fast. If the operator is picking washers, bearings, turned parts or small automotive components from bins, the safer starting point is normally a nitrile-coated liner, not PU. In practice, the first split is between light oil and heavy oil. For light oil film, a 15 gauge nylon or nylon-spandex liner with micro-foam nitrile can work well because it keeps finger feel. For medium oil or mixed oil-and-coolant conditions, a sandy nitrile palm on a 13 gauge HPPE, polyester or nylon liner usually gives a more dependable hold because the rougher finish channels liquid away from the contact points. This is why many oily-grip gloves are tested and sold under EN 388 for mechanical protection rather than as general-purpose inspection gloves.
Choose coating texture by oil level, not by catalogue photos
Micro-foam nitrile, flat nitrile and sandy nitrile are not small cosmetic differences. Flat nitrile is robust and often cheaper, but it can feel slippery on polished oily metal. Micro-foam nitrile improves touch and breathability, but once the oil load becomes heavier, it can saturate and lose the sharp grip buyers expected from the showroom sample. Sandy nitrile is usually the most forgiving option for oily handling because the rough surface creates more friction under contaminated conditions. A practical factory rule is this: if the user handles dry-to-slightly-oily components and needs high dexterity, start with 15G nylon plus micro-foam nitrile. If the user handles wet-oily steel parts, castings or machine-shop output, start with 13G liner plus sandy nitrile full palm, and consider thumb crotch reinforcement if failure there is common. If there is sharp edge risk as well as oil, move the liner to HPPE or HPPE-blend and ask for an EN 388 result with the full code shown, not just a sales claim like cut level glove.
The liner matters as much as the coating
Buyers sometimes compare only the palm coating and ignore the shell. That is a mistake. A 13 gauge polyester shell is cost-effective and acceptable for many warehouse or basic handling jobs, but it is not the same glove as a 13 gauge HPPE liner built for oily metal parts with edge risk. HPPE gives a cooler handfeel than aramid in many applications and is common in cut-resistant oily-grip gloves. A typical build might be 13G HPPE with sandy nitrile palm, while a thinner option may be 15G nylon-spandex with micro-foam nitrile. Liner tension, cuff elasticity and coating penetration also change performance. If the knit is too loose, the glove twists when picking parts. If nitrile soaks too far through the liner, the glove becomes stiff and the user takes it off. On the factory floor this is controlled at the dipping and curing stage, not by artwork or packaging. For repeated orders, buyers should lock down the liner composition, gauge, colour, coating coverage and finished weight per pair on the approved sample, otherwise a supplier can quietly substitute a softer polyester shell and the glove feels different even if it looks similar.
Ask for the right test data and be careful with over-claiming
For this category, the core test reference is usually EN 388:2016+A1:2018. If the glove also needs general EU PPE compliance, the model should sit under the relevant PPE process with correct documentation, but the grip itself is not certified by a magic anti-slip standard. Buyers should ask to see the actual EN 388 code, for example abrasion, blade cut, tear, puncture and where relevant ISO 13997 cut result. If the application is metal stamping or sharp-edged components, the ISO 13997 letter matters more than an old-style coup test number on its own. Be honest about chemical exposure as well. A glove that handles oily parts is not automatically a chemical-protective glove under EN ISO 374. Thin palm-coated knit gloves can tolerate incidental contact with oils and coolant splash during handling, but they are not the right choice for prolonged immersion in solvents or aggressive degreasers. This matters because procurement teams sometimes try to combine assembly grip, cut resistance and chemical resistance in one low-cost SKU. Usually that leads to compromise. If the plant genuinely needs chemical protection, that is a different glove family.
MOQ, price and lead-time are usually driven by coating and packaging
For an OEM order from a China factory, MOQ often starts around 3,000 to 6,000 pairs per size-colour mix for a standard dipped work glove, though plain existing shells in stock colours can sometimes be easier. A custom sandy nitrile glove with printed logo, retail header card and export carton marks is a different project from a plain bulk-packed line for industrial distribution. Lead time for a repeatable dipped style is often around 30 to 45 days after sample approval and deposit, but this moves with liner yarn availability and dipping line load. On price, buyers should expect meaningful spread by construction. A basic 13G polyester with smooth nitrile palm may sit in a lower band than a 13G HPPE sandy nitrile glove or a 15G nylon-spandex micro-foam style with touchscreen finishing. For very rough guidance only, many common OEM coated work gloves land somewhere around well under one US dollar to low single-digit dollars per pair ex-factory, depending on yarn, coating weight, testing, packaging and order size. If a quote is extremely low, check whether the supplier reduced coating weight, switched gauge, or quoted on loose bulk packing without individual size marking.
What we can make, and where we would tell you to change direction
This product family is within the core capability of a Yiwu-based knit-and-dip glove supply chain: 13G and 15G liners, nitrile palm coatings, sandy nitrile finishes, logo printing, polybag or header-card packing, carton barcode labels and export loading by FOB Ningbo or Shanghai. It is a normal OEM category for importers, brands and industrial distributors. Sample development usually means confirming liner, coating, size set, logo method and packing before wear testing in the target environment. Where we would be plain with a buyer is on extreme claims. If you need a fully engineered oil-platform glove with advanced impact protection, bonded membranes, or highly specialised liquid-proof chemical gauntlets, that is outside the simple knit-dip work glove programme and may need a different factory type. For most oily-parts handling, though, the correct route is not a fancy brochure feature list. It is a controlled trial of 2 or 3 builds: for example 15G nylon micro-foam nitrile, 13G polyester sandy nitrile, and 13G HPPE sandy nitrile, then compare grip, wear life and operator acceptance side by side for one shift or one production week.
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This guide is updated when industry conditions change - the last revision was based on Q1 2026 fabric pricing and CN-EU freight rates.