Gauge is a manufacturing number before it is a marketing number — the count of needles per inch on the machine that knits a glove’s liner. On its own, it says nothing about how much cut protection that liner earns. TEGX™’s own range makes that case directly: several of its cut-protection series sit at the fine end of the gauge scale most buyers assume trades protection away, and their certified ratings climb anyway.
What It Is
Gauge measures knit density, not fiber identity. It counts the needles per inch on the circular knitting machine that produces a glove’s liner: more needles per inch means more, finer loops across the same span of fabric, and a thinner cross-section of material overall. Fewer needles per inch means fewer, coarser loops, and more bulk per square inch. Industrial hand-protection liners are built across a recognized industry range — running from a heavier, more open knit around 13-gauge up through 15gauge, 18-gauge, and 21-gauge constructions at the fine end, where the knit sits close enough to the hand to feel closer to a second skin than a work glove.
TEGX™, Stego’s cut-and-puncture platform, builds much of its range at that fine end. Its own Article Data Sheets say so directly, without needing to print a number: on Xyron Max’s sheet, FlexSkin™ is described as an “ultra fine gauge layer enhancing flexibility, tactility, and dexterity,” and on SuperCut Vanta’s, NanoArn™ is built as a “fine gauge” construction in its own right.
Why It’s Built That Way
Cut resistance has traditionally been a mass problem. A coarser, heavier-gauge knit earns part of its resistance by being thicker — more fiber sitting between the blade and the hand, resisting by volume. That is a real mechanism, and it is also the reason cut-resistant gloves earned a reputation for fighting the hand: the protection was built into the bulk, and the bulk did not go away when the task needed a lighter touch.
A fine or ultra-fine gauge liner does not have that bulk to work with. If gauge were the only variable in the equation, a finer knit would mean a lower cut score, every time. TEGX does not treat that as fixed. Rather than add knit mass to raise the cut level, the platform engineers what the yarn does inside that thinner construction: CoreDeflect™ aligns fiber directionally through the liner so blade force disperses across the structure instead of concentrating at one contact point, and each SKU’s reinforcement layer is built to hold that fine construction together under load without adding bulk back into it. Gauge sets what the knit can physically hold. The fiber engineering built into it decides what the glove actually resists.
How You’ll Feel It On Shift
The trade-off you expect from a cut glove is stiffness for protection — thicker fabric, less feel, a hand that tires before the shift does. A fine-gauge TEGX liner is built to remove that trade-off from the equation, not the protection itself. Close a full grip around a fastener, run wire through your fingers, or work a touchscreen mid-task, and the liner underneath moves with the hand instead of against it — there is less raw material working against your grip to begin with, and the fiber structure inside it is doing the resisting, not the mass.
That does not mean gauge alone tells you what a glove will do. A finer knit does not guarantee a lower cut rating, and a coarser one does not guarantee a higher one — gauge is one input into a certified, assembled-glove result, never the whole spec on its own. Check the ANSI/ISEA 105 or EN 388 rating printed on the label. That number has been tested. The gauge count has not.
Where the TEGX Range Sits on the Gauge Scale TEGX’s own published surfaces put several series at the fine end of the gauge scale, each carrying a different certified cut level on the same thin, dexterous construction:
Xyron series (ST-2080 Guard / ST-2091 Max) — the series’ own catalogue introduction states it was “built with ultra-fine gauge liners and precision-applied coatings” for “a seamless fit and calibrated touch.” Certified ANSI/ISEA 105 A6 (Guard) and A7 (Max) on that same fine-liner family.
SuperCut Vanta (ST-2099) — NanoArn™’s own “fine gauge” construction, carried to ANSI/ISEA 105 A9, the top of the ANSI cut scale, on the same architecture.
Praxor Neo (ST-2093) and Praxor Evo (ST-2094) — built on the same precision-fit, ultra-light seamless-liner territory, without either sheet printing the word “gauge” itself. Certified A6 and A7.
Across that spread — A6 to A9 — the certified EN ISO 21420 dexterity rating does not move: every one of these five gloves holds Dexterity Level 5. Cut level climbs, the liner family stays fine, and dexterity holds constant. That is the range worth reading on a spec sheet — not the cut letter on its own.
Standards
| SKU | Series | ANSI/ISEA 105 Cut | EN 388:2016+A1:2018 | EN ISO 21420 Dexterity |
| ST-2080 | Xyron Guard | A6 | 4X42F | 5 |
| ST-2091 | Xyron Max | A7 | 4X42F | 5 |
| ST-2093 | Praxor Neo | A6 | 4X42F | 5 |
| ST-2094 | Praxor Evo | A7 | 4X42F | 5 |
| ST-2099 | SuperCut Vanta | A9 | 4X42F | 5 |
Certified assembled-glove values, PTF-authoritative (Guardrails #1/#7), cross-checked against each SKU’s public surfaces; where a SKU’s ADS is mid-revision, the PTF/catalogue value governs.
Strength by design, precision by structure
