
Many glove orders go wrong before sampling because the buyer asks for a performance claim without naming the correct standard code and target level. EN 388:2016, ANSI/ISEA 105, EN 511 and EN 374 drive different yarns, gauges, coatings, thicknesses and test plans. If the brief only says cut resistant, winter glove or chemical glove, factories will quote different constructions and the prices will not be comparable. This article shows how the main standards change the build, where buyers confuse marketing language with test claims, and what a usable RFQ or tech pack should contain before quotation.
The fastest way to derail a glove RFQ
The most common failure in glove standard selection is simple: the buyer describes the glove by sales language, not by test route. Terms like cut resistant, winter glove, chemical glove, anti-slip and heavy duty are not technical specifications. They do not tell a factory which yarn family, knit gauge, coating system, thickness or lab test is required. A real RFQ problem looks like this: the buyer asks for a cut glove in black, sizes 8 to 10, private label, 12 pairs per bag. Factory A quotes a 13-gauge HPPE liner with black foam nitrile palm. Factory B quotes a 15-gauge HPPE and steel fibre liner with sandy nitrile. Factory C quotes a cheap 13-gauge polyester liner with latex palm because no standard code was stated. The prices are not comparable because the products are not comparable. From the factory side, the wrong standard affects the entire build. A 13-gauge HPPE, glass fibre and nylon seamless liner runs differently from a 10-gauge aramid blend liner, and both are completely different from a sewn split leather driver glove. Once yarn is booked, dipping line time is allocated and artwork is approved, changing the target from a general cut glove to EN 388:2016 level D can mean starting again, not making a small correction.
What the main glove standards actually control
EN 388:2016 covers mechanical risks for the EU market. The result is shown as four numbers and then a letter, for example 4X43D, with optional impact marking P. The numbers cover abrasion, blade cut, tear and puncture. The A to F letter is the ISO 13997 cut result. If a buyer says level 5 cut without the full code, that is not enough. Old wording based on the Coup test still appears in the market, but it does not replace a full EN 388:2016 claim. Buyers often try to convert directly between ANSI and EN 388, but that is risky. An ANSI A4 glove is not automatically EN 388 D. The test methods, sample preparation and construction details are different enough that dual-market products often need dual testing. EN 511 is the relevant code for cold hazards. It measures convective cold, contact cold and water penetration. A glove can feel thick and still perform poorly if the liner compresses under use or if water enters through a palm-only coating. A 7-gauge acrylic terry liner with a full latex dip may outperform a bulkier glove with only a soft brushed inside and no realistic barrier to water. EN 374 is the route for chemical and micro-organism claims, and this is where buyers make the most expensive assumptions. Chemical resistance depends on the exact chemical, concentration, temperature and contact time. Nitrile, neoprene, PVC and natural rubber do not behave the same way. A 0.38 mm unsupported nitrile glove may be suitable for some oils and weak chemicals, but that does not make it a general chemical glove for solvents, acids and alkalis.
Where buyers confuse marketing claims with lab claims
Grip, touch screen function, breathable back and ergonomic fit are product features. They are not standard claims. That wording gives the factory no test target and no clear build priority. A sandy nitrile palm can improve oily grip compared with smooth nitrile, but grip is not the same as EN 388 abrasion or ISO 13997 cut. A brushed acrylic lining may feel warm in hand, but warmth is not the same as EN 511 compliance. A nitrile coating may resist some liquids better than latex, but nitrile by itself is not an EN 374 claim. This matters commercially because factories will optimise for different things. One supplier may prioritise dexterity and quote a 15-gauge liner. Another may prioritise low price and quote 13-gauge polyester with a standard crinkle latex palm. Another may assume chemical splash use and move to an unsupported flock-lined nitrile glove. If the brief starts with marketing words, the quotations will drift apart immediately.
How the standard changes the actual glove build
Once the correct standard is fixed, the construction becomes much easier to define. For a general industrial cut glove targeting EN 388:2016 4X43D, a common build is a 13-gauge or 15-gauge seamless liner using HPPE with glass fibre or steel fibre, then a foam nitrile or sandy nitrile palm dip. If the buyer wants lower cost and strong dry grip, crinkle latex may be possible, but the hand feel, wear pattern and coating weight will change. For cold work, the key decision is usually liner structure first, not branding copy. Typical winter work gloves use 7-gauge or 10-gauge outer knitting with acrylic terry, brushed acrylic or brushed polyester inside. If the user handles wet goods outdoors, a palm dip may not be enough. A full dip, double dip or longer safety cuff may be more realistic if EN 511 water penetration is part of the target. For chemical handling, the product family often changes completely. Instead of seamless knit-and-dip gloves, the right route may be unsupported nitrile, PVC or neoprene gloves at a specified thickness such as 0.35 mm, 0.45 mm or heavier. At that point, comparing pair price against a knit HPPE glove is pointless. The standard determines whether you are even talking about the same category of glove. Some requests simply do not belong in one SKU. We do not make sterile surgical gloves. We do not make high-voltage insulating gloves to IEC 60903. We do not promise that one low-cost 13-gauge glove will give EN 374 chemical performance, high cut level, touchscreen function, winter insulation and TPR impact protection all at once.
The RFQ format that gives you a usable first quote
A workable RFQ starts with end use, then market, then standard, then build. A useful example is: seamless 13-gauge HPPE, glass fibre and nylon liner, grey shell, black sandy nitrile palm coating, knit wrist, sizes 7 to 11, target EN 388:2016 4X43D, for EU distribution, logo print on back, 12 pairs per inner, 120 pairs per export carton, FOB Ningbo. A factory can price that because yarn consumption, machine allocation and likely test route are visible. If the glove is for the US, add the ANSI/ISEA 105 target, for example cut level A4 or A5. If winter certification is mandatory, state EN 511. If warmth without testing is acceptable for warehouse work at 5 to 10 degrees C, say so. If chemical use is involved, list the chemicals and whether contact is splash, intermittent handling or immersion. Without that, any EN 374 discussion is guesswork. Keep decoration and performance claims separate. Back print, silicone-free packing, barcode labelling, retail header card, hangtag language and carton marks are commercial details. They matter, but they should come after shell yarn, gauge, coating material, coating finish, cuff style and size range. Changing from foam nitrile to sandy nitrile or from 13-gauge to 15-gauge changes line speed, coating pick-up and scrap. Changing hangtag artwork does not.
MOQ, lead time and price realities that affect standard selection
For standard seamless knit-and-dip work gloves, MOQ is commonly 3,000 to 6,000 pairs per colour per construction. If the yarn is special, if the coating colour is custom rather than standard black or grey, or if sizes are split into small volumes such as 7, 8, 9, 10 and 11 with retail packing, the practical MOQ rises because wastage and packing labour rise. Sample lead time for common yarns and standard coatings is often 7 to 14 days. Bulk production is usually around 25 to 40 days after sample approval and deposit. Third-party lab testing is separate from sewing, knitting or dipping time. If EN 388:2016, EN 511 or EN 374 reports are required, add the lab schedule honestly. Pretending certification can happen inside the same factory production window is how shipment dates become fiction. Price moves with the build. A basic 13-gauge polyester glove with crinkle latex palm sits in a much lower band than a 13-gauge HPPE and glass fibre glove with sandy nitrile and formal test documentation. Add TPR impact back, longer cuff, retail card packing or one pair per polybag and the labour increases again. The only fair comparison is quote against quote on the same basis: liner composition, gauge, coating, standard target, packing and Incoterm such as FOB Shanghai or FOB Ningbo. Inspection terms should also be stated before PO, not after production. If the buyer wants AQL 2.5 for visual inspection, carton drop test, barcode scan check or needle control procedure for sewn gloves, put that in the tech pack or PO notes. Standard selection and quality control are linked because the acceptance criteria should match the product risk and market claim.
What to lock down before placing the purchase order
Before issuing the PO, check the exact wording that will appear on the glove, retail pack and online listing. If the product is sold as cut resistant, ask for the specific claim: EN 388:2016 4X43D, ANSI/ISEA 105 A4, or both. If sold for cold work, confirm whether EN 511 is required or whether it is only a warm-lined glove with no certified claim. If sold for chemical handling, the chemical list must be part of the file, not an afterthought. Ask for the approved construction details in one place: shell yarn, yarn blend, gauge, coating material, coating finish, coating area, cuff type, cuff colour, size range, logo method, packing method and carton count. Even a one-page tech pack prevents many problems because it forces the buyer to define the job instead of buying by adjective. We will not oversell a claim we cannot document, and we will say clearly when a project should go to a different specialist supplier. In glove standard selection, that honesty usually saves one failed sample round, one bad quote comparison and sometimes one rejected shipment.
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