How to Choose the Best Welding Gloves: Complete Buying Guide
Choosing the best welding gloves starts with matching the glove to the work you actually do. The right pair depends on your welding process, heat exposure, sparks, spatter, sharp edges, abrasion risk, and the amount of dexterity you need for safe torch and material control.
A good welding glove should balance heat resistance, mechanical protection, comfort, fit, cuff length, lining, leather type, glove thickness, and seam construction. Before buying, also check the glove’s relevant safety standards, including EN 407 for heat and flame protection, EN 388 for mechanical risks, and EN 12477 for welding-glove requirements.
For professional use, do not choose gloves by price or thickness alone. Choose welding gloves based on the actual task: TIG welding needs control, MIG welding needs balanced protection, and Stick welding needs stronger heat, spark, and spatter protection.
For a broader overview of glove types, materials, safety standards, care, and buying factors, read our complete guide to welding gloves.
How Do You Choose the Right Welding Gloves?
To choose the right welding gloves, start with the welding process, then match the glove to the real hazards of the job. The best welding gloves protect against heat, sparks, spatter, abrasion, cuts, punctures, and sharp edges while still giving the welder enough dexterity to work safely.
For most users, the choice is simple: TIG welding gloves are best for precision and finger control, MIG welding gloves are best for balanced protection, and Stick welding gloves are best for high heat, sparks, and heavy-duty welding.
Before buying, check the glove’s leather type, glove thickness, cuff length, lining, fit, seam construction, EN 407 rating, EN 388 rating, and EN 12477 welding-glove suitability.
For a deeper comparison of process-specific gloves, read our Types of Welding Gloves: MIG vs TIG vs Stick guide.
The 6 Factors to Check Before Buying Welding Gloves
In simple terms:
choose welding gloves by matching the glove to the process, heat level, spatter exposure, mechanical risk, dexterity need, material, construction, fit, and safety standards. Do not choose only by price, thickness, or comfort. The right glove is the one that protects against the real hazards of the job while still allowing safe hand control.
Choose Welding Gloves by Welding Process
The best way to choose welding gloves is to start with the welding process. TIG, MIG, and Stick welding create different levels of heat, sparks, spatter, slag, abrasion, and hand-control requirements.
A glove that works well for precision TIG welding may not provide enough protection for heavy Stick welding. A thick Stick glove may protect well, but it can feel too bulky for clean TIG work.
For a deeper comparison of glove types, read our Types of Welding Gloves: MIG vs TIG vs Stick guide.
How to Choose TIG Welding Gloves
Choose TIG welding gloves when precision, fingertip sensitivity, and torch control matter most. TIG welding usually creates lower spatter than MIG or Stick welding, but it requires better hand movement and filler-rod control.
The best TIG welding gloves are usually made from thin, flexible leather such as goatskin or deerskin. They should fit close to the hand without restricting finger movement.
TIG welders should look for:
- High dexterity for torch control and filler-rod handling.
- Thin and flexible leather for better finger movement.
- Close fit without excess material at the fingertips.
- Goatskin or deerskin leather for softness and tactile feedback.
- Light lining or unlined construction for better hand feel.
- Moderate heat protection suitable for controlled TIG welding conditions.
For precision welding, stainless steel work, EV manufacturing, and detailed fabrication, review ARASWELD’s precision TIG welding gloves.
How to Choose MIG Welding Gloves
Choose MIG welding gloves when you need balanced heat protection, spatter resistance, durability, and usable hand movement. MIG welding usually creates more sparks, spatter, and radiant heat than TIG welding.
The best MIG welding gloves are usually made with cowhide, split cowhide, reinforced seams, lining, and medium-to-long cuffs. They should protect against heat and spatter without becoming too stiff for torch handling and material positioning.
MIG welders should look for:
- Medium-to-heavy leather thickness for regular heat and spatter exposure.
- Cowhide or split cowhide leather for durability and abrasion resistance.
- Reinforced palms and seams for longer glove life.
- Cotton or heat-resistant lining for comfort during longer welding tasks.
- Medium or long cuff coverage for wrist and lower-forearm protection.
- Balanced dexterity for torch handling, fabrication, and repeated work.
For MIG, MAG, fabrication, high-spatter work, and medium-to-high heat exposure, compare ARASWELD’s high-heat protection welding gloves.
How to Choose Stick Welding Gloves
Choose Stick welding gloves when heat, sparks, slag, spatter, and heavy-duty protection are the main risks. Stick welding usually requires thicker gloves than TIG or MIG because the process can create more intense heat and heavier spatter.
The best Stick welding gloves usually use thick split cowhide leather, insulated lining, long gauntlet cuffs, reinforced palms, and Kevlar stitching. These features help protect the hands, wrists, and lower forearms during demanding welding work.
Stick welders should look for:
- Thick split cowhide leather for heat resistance and durability.
- Long gauntlet cuffs for wrist and lower-forearm coverage.
- Heat-resistant lining for higher-temperature work.
- Kevlar stitching or aramid thread to reduce seam failure.
- Reinforced palm and thumb areas for rough handling and abrasion.
- Strong protection against sparks, slag, spatter, and hot metal.
For structural steel, construction, repair work, rough metal handling, and demanding industrial conditions, review ARASWELD’s impact- and abrasion-resistant welding gloves.
TIG vs MIG vs Stick Welding Gloves Comparison
Use this table to compare the main differences between TIG, MIG, and Stick welding gloves before choosing a product.
| Welding Process | Main Hazard | Ideal Leather | Thickness | Dexterity Level | Recommended Cuff | Lining | Best ARASWELD Solution |
|---|---|---|---|---|---|---|---|
| TIG Welding | Moderate heat, light sparks, sharp edges, and precision torch control. | Goatskin or deerskin for flexibility and fingertip sensitivity. | Thin to lightweight leather. | High — designed for precise hand movement. | Short to medium cuff for mobility and basic wrist coverage. | Unlined or lightweight lining for better hand feel. | Precision TIG welding gloves. |
| MIG Welding | Regular heat exposure, sparks, spatter, abrasion, and repeated material handling. | Cowhide or split cowhide for heat resistance and durability. | Medium to heavy leather. | Medium — balances movement with protection. | Medium to long cuff for wrist and lower-forearm protection. | Cotton lining or heat-resistant lining for comfort and insulation. | High-heat protection welding gloves. |
| Stick Welding | High heat, heavy sparks, slag, spatter, radiant heat, and rough industrial conditions. | Thick split cowhide or heavy-duty cowhide with reinforced areas. | Heavy-duty thick leather. | Low to medium — protection is the main priority. | Long gauntlet cuff for wrist and lower-forearm coverage. | Heat-resistant lining for added insulation in high-heat work. | Impact- and abrasion-resistant welding gloves. |
In simple terms:
choose TIG welding gloves when you need precision and fingertip sensitivity, choose MIG welding gloves when you need balanced protection for heat and spatter, and choose Stick welding gloves when the work involves high heat, slag, sparks, long cuffs, and heavy-duty protection.
Choose the Right Leather Type for Welding Gloves
The best leather for welding gloves depends on the welding process, heat level, spatter exposure, abrasion risk, and how much hand control the welder needs. Leather affects heat resistance, durability, dexterity, comfort, grip, and glove lifespan.
In simple terms, goatskin leather is often better for TIG welding and precision work, cowhide leather is a strong all-around option for MIG welding and fabrication, and split cowhide leather is usually better for Stick welding, high heat, sparks, spatter, and heavy-duty industrial work.
Cowhide Leather Welding Gloves
Cowhide welding gloves are a strong choice for welders who need a balance of heat resistance, durability, comfort, and abrasion protection. Cowhide is commonly used for MIG welding, fabrication, construction, steelwork, and general industrial welding.
Cowhide leather is usually more protective than goatskin, but less flexible than softer leathers used for precision TIG welding. It is a good option when the work involves repeated handling, sparks, rough surfaces, and moderate-to-high heat.
Cowhide welding gloves are best for:
- MIG welding
- General fabrication
- Construction work
- Steelwork and metal handling
- Moderate-to-high heat exposure
- Abrasion-heavy tasks
For MIG, MAG, fabrication, and high-heat work, compare ARASWELD’s high-heat protection welding gloves.
Goatskin Leather Welding Gloves
Goatskin welding gloves are best when dexterity, comfort, and finger control matter most. Goatskin is soft, flexible, and responsive, which makes it useful for TIG welding, stainless steel work, automotive welding, EV manufacturing, and precision fabrication.
The main benefit of goatskin is control. The trade-off is that it usually provides less protection against heavy spatter, high heat, and rough industrial handling than thicker cowhide or split cowhide gloves.
Goatskin welding gloves are best for:
- TIG welding
- Precision welding
- Filler-rod control
- Torch control
- Thin metal work
- Automotive and EV manufacturing
For precision work and high finger control, review ARASWELD’s precision TIG welding gloves.
Deerskin Leather Welding Gloves
Deerskin welding gloves are known for softness, comfort, and flexible hand movement. They can be useful for welders who need a comfortable glove for light-to-medium welding tasks where extreme heat and heavy spatter are not the main risks.
Deerskin is usually not the first choice for heavy Stick welding, foundry work, or high-spatter industrial applications. It is better suited to work where comfort, movement, and reduced hand fatigue are important.
Deerskin welding gloves are best for:
- Light-to-medium welding
- Comfort-focused work
- Flexible hand movement
- Detailed fabrication
- Lower-spatter environments
- Longer tasks where comfort matters
Split Cowhide Leather Welding Gloves
Split cowhide welding gloves are commonly used for Stick welding, heavy-duty welding, high-heat work, construction, steel fabrication, and abrasive industrial environments. Split cowhide is thicker and more protective than softer precision leathers.
The main benefit is protection. Split cowhide provides strong resistance against heat, sparks, spatter, slag, abrasion, and rough material handling. The trade-off is lower dexterity because thicker leather reduces fingertip sensitivity.
Split cowhide welding gloves are best for:
- Stick welding
- Heavy MIG welding
- High-heat welding
- Structural steel work
- Construction and repair work
- Abrasion-heavy industrial tasks
For rough steel, sharp edges, abrasion, puncture risk, and demanding industrial work, review ARASWELD’s impact- and abrasion-resistant welding gloves.
Cowhide vs Goatskin vs Deerskin vs Split Cowhide Welding Gloves
Use this table to compare the most common leather types before choosing the best welding gloves for TIG, MIG, Stick, fabrication, or industrial use.
| Leather Type | Heat Resistance | Durability | Dexterity | Best Welding Process | Best Applications |
|---|---|---|---|---|---|
| Cowhide Leather | High — suitable for regular welding heat, sparks, and moderate-to-heavy spatter. | High — strong resistance to abrasion, rough handling, and repeated industrial use. | Medium — practical hand movement, but less flexible than goatskin or deerskin. | MIG welding, Stick welding, and general fabrication. | Construction, steelwork, fabrication, metal handling, and high-abrasion tasks. |
| Goatskin Leather | Moderate — suitable for controlled TIG welding and lower-to-moderate heat exposure. | Good — durable for flexible gloves used in precision welding conditions. | High — soft leather supports fingertip sensitivity and torch control. | TIG welding, detailed welding, and precision fabrication. | Stainless steel, automotive, EV manufacturing, thin metal, and fine handling tasks. |
| Deerskin Leather | Light to moderate — better for controlled welding than extreme high-heat work. | Moderate — useful for comfort-focused and flexible welding applications. | High — allows natural hand movement and reduced hand fatigue. | Light TIG welding, detailed fabrication, and comfort-focused work. | Light-to-medium heat work, repair tasks, and frequent hand movement. |
| Split Cowhide Leather | High — commonly used in thick gloves for sparks, spatter, slag, and high-heat work. | High — strong option for abrasive materials, heavy use, and industrial welding. | Low to medium — thicker leather prioritizes protection over fingertip sensitivity. | Stick welding, heavy MIG welding, and high-spatter applications. | Structural welding, construction, heavy fabrication, steelwork, and industrial tasks. |
In simple terms:
choose goatskin welding gloves when precision and dexterity matter most, choose cowhide welding gloves when you need balanced protection for MIG welding and fabrication, and choose split cowhide welding gloves when heat, sparks, spatter, abrasion, and heavy-duty protection are the main risks. Deerskin can be useful for comfort-focused welding, but it is usually less important for high-heat industrial work.
Check Heat Protection and Safety Standards Before You Buy
Before buying welding gloves, check whether the glove matches the real hazards of your work. A glove may look thick or durable, but appearance alone does not prove protection against heat, sparks, spatter, molten metal, abrasion, cuts, tears, punctures, or sharp edges.
The most important welding glove standards to understand are EN 407, EN 388, and EN 12477. These standards help buyers compare thermal protection, mechanical protection, and welding-specific glove suitability.
For a direct comparison, read our EN 388 vs EN 407 welding glove standards guide.
EN 407: Heat and Flame Protection
EN 407 evaluates glove protection against thermal risks such as flame, contact heat, convective heat, radiant heat, and molten-metal splash. For welding gloves, this matters because welders may handle hot workpieces and work around sparks, spatter, radiant heat, and heated metal.
For official standard context, see NEN-EN 407 Protective Gloves Against Thermal Risks.
Do not assume the thickest glove is automatically the best heat-resistant welding glove. Always check the product’s EN 407 rating, leather type, lining, cuff coverage, and intended use before buying.
EN 407 helps buyers evaluate:
- Flame behavior
- Contact heat
- Convective heat
- Radiant heat
- Small molten metal splashes
- Large molten metal exposure where applicable
For a full explanation of the rating categories, read our EN 407 heat protection standard guide.
EN 388: Mechanical Protection
EN 388 evaluates glove protection against mechanical risks such as abrasion, blade cut, tear, puncture, and impact protection where applicable. This is important because welding work often includes metal handling, sharp edges, tools, fixtures, rough steel, and abrasive surfaces.
A glove with strong heat protection may still be weak against cuts, abrasion, or puncture risks. For industrial welding, fabrication, construction, and steel handling, buyers should check both EN 407 and EN 388 before choosing gloves.
EN 388 helps buyers evaluate:
- Abrasion resistance
- Cut resistance
- Tear resistance
- Puncture resistance
- Impact protection where applicable
- Additional cut testing where applicable
For a full explanation of the rating system, read our EN 388 mechanical protection standard guide.
EN 12477: Welding Glove Requirements
EN 12477 is the standard used for protective gloves for welders. It helps buyers identify gloves designed for welding and related processes rather than general work gloves.
This standard is important because welding gloves need both thermal protection and mechanical protection. A proper welding glove should protect against heat-related hazards while also supporting grip, durability, cuff coverage, and safe hand movement.
EN 12477 helps buyers:
- Identify gloves designed for welding work
- Compare gloves for TIG, MIG, Stick, and related welding applications
- Understand the difference between Type A and Type B welding gloves
- Avoid using general work gloves for welding hazards
- Support safer procurement decisions for industrial and B2B welding environments
Certification labels are useful, but they do not replace task-based selection. Always compare the glove’s ratings with your real welding process, heat level, spatter exposure, sharp-edge risk, work duration, and required dexterity.
EN 407 vs EN 388 vs EN 12477
Use this table to understand the difference between the three main welding glove safety standards before choosing the best welding gloves for your task.
| Standard | Main Purpose | What It Evaluates | Why It Matters When Buying Welding Gloves |
|---|---|---|---|
| EN 407 | Heat and flame protection | Flame behavior, contact heat, convective heat, radiant heat, and molten-metal splash risks. | Helps buyers compare thermal protection for sparks, spatter, hot workpieces, and high-heat welding tasks. |
| EN 388 | Mechanical protection | Abrasion, blade cut, tear, puncture, and impact protection where applicable. | Helps buyers compare durability and protection against sharp edges, rough steel, tools, and material handling risks. |
| EN 12477 | Welding-glove suitability | Requirements for protective gloves used by welders and related welding applications. | Helps identify gloves designed for welding work, including Type A and Type B welding glove classifications. |
In simple terms:
EN 407 helps buyers compare heat and flame protection, EN 388 helps buyers compare mechanical protection, and EN 12477 helps identify gloves designed for welding work. For professional welding, do not check only one standard. The safest buying decision comes from matching the glove’s ratings to the real process, heat exposure, spatter level, sharp-edge risk, and required dexterity.
EN 12477 Type A vs Type B: Which Welding Glove Do You Need?
EN 12477 Type A and Type B welding gloves are designed for different balances of protection and dexterity. Type A gloves generally focus more on protection, while Type B gloves generally focus more on hand movement and finger control.
In simple terms, choose Type A welding gloves when the job requires stronger protection against heat, sparks, spatter, and rough industrial conditions. Choose Type B welding gloves when the job requires better dexterity for detailed welding, torch control, and filler-rod handling.
Do not choose Type A or Type B by name alone. Always check the glove’s actual EN 407 rating, EN 388 rating, material, thickness, lining, cuff length, stitching, and intended welding application.
For Type A and Type B classification, see NEN-EN 12477 protective gloves for welders.
What Are EN 12477 Type A Welding Gloves?
EN 12477 Type A welding gloves are generally protection-focused gloves. They usually offer stronger protection but lower dexterity compared with Type B gloves.
Type A gloves are often selected for welding jobs where heat, sparks, spatter, slag, abrasion, and rough handling are bigger risks than fine finger movement. They may be suitable for many MIG welding, Stick welding, heavy fabrication, construction, and industrial welding tasks, depending on the glove’s actual ratings.
Type A welding gloves are usually better when the job involves:
- Higher heat exposure
- Frequent sparks and spatter
- Stick welding or heavy MIG welding
- Rough steel and abrasive materials
- Longer cuff coverage
- Stronger leather and reinforced construction
- Protection over maximum fingertip sensitivity
For high-heat welding and demanding fabrication work, compare ARASWELD’s high-heat protection welding gloves.
What Are EN 12477 Type B Welding Gloves?
EN 12477 Type B welding gloves are generally dexterity-focused gloves. They usually offer better hand movement and finger control but lower overall protection compared with Type A gloves.
Type B gloves are often selected for welding tasks where precision matters more than maximum heat and spatter protection. They may be suitable for TIG welding, thin-material welding, stainless steel work, automotive work, EV manufacturing, and detailed fabrication, depending on the glove’s actual technical data.
Type B welding gloves are usually better when the job involves:
- TIG welding
- Filler-rod handling
- Detailed torch control
- Thin-material welding
- Higher fingertip sensitivity
- Flexible leather construction
- Dexterity over maximum heat protection
For precision welding and detailed TIG work, review ARASWELD’s precision TIG welding gloves.
EN 12477 Type A vs Type B Welding Gloves Comparison
Use this table to compare Type A and Type B welding gloves before choosing gloves for TIG, MIG, Stick, fabrication, or industrial welding work.
| Comparison Factor | EN 12477 Type A Welding Gloves | EN 12477 Type B Welding Gloves |
|---|---|---|
| Main Priority | Higher protection for more demanding welding conditions. | Higher dexterity for detailed welding and precise hand movement. |
| Protection Level | Generally higher protection against heat, sparks, spatter, and rough industrial hazards. | Generally lower protection than Type A, but better flexibility and finger control. |
| Dexterity | Lower to medium dexterity because the glove is usually thicker or more reinforced. | Higher dexterity for torch control, filler-rod handling, and detailed work. |
| Common Welding Use | Often selected for MIG welding, Stick welding, heavy fabrication, construction, and high-spatter work. | Often selected for TIG welding, thin-material welding, precision fabrication, and controlled welding tasks. |
| Typical Construction | Medium-to-heavy leather, stronger reinforcement, lining, and longer cuff coverage where needed. | Softer, thinner, or more flexible leather designed to improve hand movement and tactile feedback. |
| Buyer Priority | Choose when protection is more important than maximum fingertip sensitivity. | Choose when dexterity is more important than maximum heat and spatter protection. |
| What to Check Before Buying | EN 407 rating, EN 388 rating, cuff length, leather thickness, lining, stitching, and actual work hazards. | EN 407 rating, EN 388 rating, dexterity, fit, leather flexibility, heat exposure, and intended TIG or precision use. |
In simple terms:
choose EN 12477 Type A welding gloves when protection is the main priority, and choose EN 12477 Type B welding gloves when dexterity is the main priority. Type A is often better for demanding MIG, Stick, and industrial welding tasks, while Type B is often better for TIG and precision welding. Always confirm the glove’s actual EN 407, EN 388, EN 12477, material, thickness, cuff, lining, stitching, and intended use before buying.
Welding Glove Fit and Size Guide
The right welding glove size affects safety, comfort, grip, dexterity, torch control, and hand fatigue. Welding gloves should fit securely without restricting natural hand movement or leaving too much loose material around the fingers and palm.
A close fit is usually better for TIG welding gloves because precision and fingertip sensitivity matter more. Thicker MIG welding gloves and Stick welding gloves may need slightly more internal room because of leather thickness, lining, insulation, and longer working time.
For a full product overview after checking your size, explore our professional welding gloves.
How Should Welding Gloves Fit?
Welding gloves should fit snugly, but not tightly. Your fingers should reach close to the end of the glove without pressure, and you should be able to bend your hand, grip a torch, hold a filler rod, and handle materials safely.
A properly fitted welding glove should:
- Feel secure across the palm and fingers.
- Allow natural finger movement.
- Let you grip a torch, electrode holder, clamp, or workpiece.
- Avoid excess loose material at the fingertips.
- Avoid bunching in the palm when gripping tools.
- Support the right balance of protection, comfort, and control.
For precision TIG work, choose a closer fit. For thicker MIG or Stick gloves, allow enough room for lining and heavier leather without making the glove loose.
Signs Your Welding Gloves Are Too Tight
Welding gloves are too tight when they restrict movement, create pressure points, or make gripping tools uncomfortable. A glove can feel secure when your hand is open but still be too small when you bend your fingers or hold a welding torch.
Common signs your welding gloves are too tight:
- Restricted finger movement when closing your hand.
- Pressure around the palm, knuckles, or fingers.
- Hand fatigue after short use.
- Difficulty gripping a torch, filler rod, electrode holder, clamp, or workpiece.
- Reduced comfort during long welding shifts.
- Lining feels compressed tightly against the hand.
Quick fit tip: a welding glove should feel secure, but you should not have to fight the leather every time you bend your fingers.
Signs Your Welding Gloves Are Too Loose
Welding gloves are too loose when extra material reduces control, grip, or precision. Loose gloves can make TIG welding, filler-rod handling, and detailed fabrication harder because the hand moves inside the glove.
Common signs your welding gloves are too loose:
- Loose fingertips with empty space at the end.
- Glove shifts while moving the torch.
- Material bunches in the palm when gripping tools.
- Reduced precision during TIG welding or detailed work.
- Lower grip control when handling metal or fixtures.
- Increased risk of snagging on tools, sharp edges, or work surfaces.
Quick fit tip: if the glove folds at the fingertips or bunches heavily in the palm, it is probably too large.
How to Measure Your Hand for Welding Gloves
To measure your hand for welding gloves, measure your palm circumference and hand length, then compare both measurements with the glove manufacturer’s size chart.
Follow these steps:
- Measure palm circumference: Wrap a flexible measuring tape around the widest part of your palm below the knuckles, excluding the thumb.
- Measure hand length: Measure from the base of your palm or wrist crease to the tip of your middle finger.
- Compare both measurements: Use the size chart for the exact glove model you want to buy.
- Check the glove type: Thin TIG gloves may fit closer, while lined MIG and Stick gloves may feel thicker inside.
- Test movement if possible: Make sure you can bend your fingers, grip tools, and move your hand naturally.
If your hand measurement falls between two sizes, choose based on the task. For precision TIG welding, a closer fit usually improves control. For MIG welding, Stick welding, and high-heat work, allow enough room for lining and thicker leather without losing grip control.
Welding Glove Size Chart
Use this welding glove size chart as a general guide. Always compare your hand measurement with the specific product size chart before ordering because leather type, lining thickness, insulation, cuff design, and glove construction can affect the final fit.
| Hand Circumference | Recommended Size | Typical Fit | Best For |
|---|---|---|---|
|
5.5–6.5 in (14.0–16.5 cm) |
XS | Extra-small hand fit with close finger control. | Smaller hands, detailed work, light TIG welding, and close-fit gloves. |
|
6.5–7.0 in (16.5–17.8 cm) |
XS/S | Small hand fit with slightly more room than XS. | Precision welding, thin TIG gloves, and good fingertip sensitivity. |
|
7.0–7.5 in (17.8–19.1 cm) |
S | Small fit with secure palm and finger coverage. | TIG gloves, light fabrication gloves, and flexible leather welding gloves. |
|
7.5–8.0 in (19.1–20.3 cm) |
S/M | Small-to-medium fit for balanced comfort and control. | Welders moving between TIG precision work and general fabrication. |
|
8.0–8.5 in (20.3–21.6 cm) |
M | Medium fit for average hand circumference. | MIG welding, fabrication, workshop tasks, and regular industrial work. |
|
8.5–9.0 in (21.6–22.9 cm) |
M/L | Medium-to-large fit with more palm and finger room. | Medium-to-heavy welding gloves, MIG welding, and repeated material handling. |
|
9.0–9.5 in (22.9–24.1 cm) |
L | Large fit for broader palms and longer fingers. | MIG welding, Stick welding, construction, steelwork, and heavier fabrication. |
|
9.5–10.0 in (24.1–25.4 cm) |
L/XL | Large-to-extra-large fit for wider hands. | Heavy-duty welding gloves, thicker leather, lining, extended cuffs, and reinforced palms. |
|
10.0–10.5 in (25.4–26.7 cm) |
XL | Extra-large fit for broad palms and larger hands. | Heavy fabrication, Stick welding, structural steel, and industrial welding environments. |
In simple terms:
choose a welding glove size that feels secure without pressure and allows safe hand movement. A glove that is too tight can reduce comfort and grip strength, while a glove that is too loose can reduce torch control and precision. Use palm circumference as a starting point, then confirm the fit based on glove type, lining, leather thickness, and welding process.
Cuff Length, Lining and Kevlar Seams: Features That Matter
Two welding gloves can use similar leather but perform differently in real work. Cuff length, lining, Kevlar stitching, reinforced seams, palm reinforcement, thumb design, and insulation all affect protection, comfort, durability, and glove lifespan.When choosing the best welding gloves, do not look only at leather thickness. A thin TIG glove may need better finger control, while a heavy-duty MIG or Stick glove may need long cuffs, heat-resistant lining, reinforced palms, and aramid thread for stronger protection.
For more guidance on thermal protection, read our heat-resistant welding gloves guide.
How to Choose the Right Welding Glove Cuff Length
Welding glove cuff length should match the level of sparks, spatter, slag, hot metal, and wrist exposure in the job. Short cuffs improve mobility, while long gauntlet cuffs provide more wrist and lower-forearm protection.
Use this simple rule:
- Short cuffs: Better for TIG welding, precision work, controlled environments, and tasks where wrist movement matters.
- Long gauntlet cuffs: Better for MIG welding, Stick welding, high-spatter work, structural welding, construction, and industrial fabrication.
Choose a longer cuff when sparks, spatter, slag, or hot metal can reach the wrist or lower forearm. Choose a shorter cuff only when mobility and precision are more important than extended coverage.
For high-spatter fabrication and demanding industrial work, review ARASWELD’s high-heat protection welding gloves.
How to Choose the Right Welding Glove Lining
Welding glove lining affects heat insulation, comfort, flexibility, moisture control, and hand feel. The right lining depends on the welding process, heat exposure, working time, and required dexterity.
Common lining options include:
- Unlined gloves: Best for TIG welding, precision work, filler-rod control, and lower-to-moderate heat exposure. They provide better fingertip sensitivity and a closer fit.
- Cotton-lined gloves: Best for regular MIG welding, fabrication, workshop tasks, and longer shifts where comfort and moderate insulation matter.
- Heat-protective or aramid-lined gloves: Best for Stick welding, heavy fabrication, high-heat welding, and jobs with frequent sparks, spatter, hot materials, or radiant heat.
A thicker lining can improve insulation, but it can also reduce hand feel. Always match the lining to the real heat level and the amount of control needed for the task. See this article for more guidance Complete Guide to Welding Gloves.
Why Kevlar Thread and Reinforced Seams Matter
Kevlar thread and reinforced seams help improve welding glove durability in high-heat and high-wear areas. Many gloves fail first at the seams, thumb, palm, fingers, or cuff — not only on the leather surface.
Kevlar is an aramid-based thread often used in welding glove construction because it resists heat better than many standard sewing threads. However, Kevlar stitching alone does not make a glove suitable for every high-heat task.
A durable welding glove should combine:
- Correct leather type
- Suitable glove thickness
- Strong cuff construction
- Heat-resistant lining where needed
- Reinforced thumb and palm areas
- Kevlar or aramid stitching
- Product-specific EN 407 and EN 388 ratings
Welding Glove Construction Features Explained
Use this table to compare the main construction features before choosing gloves for TIG, MIG, Stick, fabrication, high-heat welding, or industrial work.
| Construction Feature | Why It Matters | Best For | What to Check Before Buying |
|---|---|---|---|
| Kevlar or Aramid Thread | Helps improve seam strength in areas exposed to heat, bending, sparks, abrasion, and mechanical stress. | High-heat welding, Stick welding, heavy MIG welding, steel fabrication, and industrial work. | Look for heat-resistant stitching around the palm, thumb, fingers, cuff, and seam joints. |
| Reinforced Thumb | The thumb area wears quickly during torch handling, gripping, electrode holding, and material positioning. | MIG welding, Stick welding, repair work, fabrication, and repeated tool handling. | Check for extra leather, protected seams, or reinforcement around the thumb saddle. |
| Reinforced Palm | Adds durability where the glove contacts tools, workpieces, rough steel, abrasive materials, and hot surfaces. | Construction, steelwork, material handling, heavy fabrication, and high-abrasion welding tasks. | Look for double-layer leather, palm patches, or reinforced grip areas. |
| Welted Seams | Helps protect seam edges from direct abrasion, sparks, heat, and friction. | Heavy-duty welding gloves, industrial fabrication, structural welding, and abrasive environments. | Look for protective leather strips or seam covers in high-wear areas. |
| Double Stitching | Provides extra seam support in areas exposed to repeated gripping, bending, and pressure. | Regular MIG welding, Stick welding, long shifts, construction, and fabrication work. | Check for clean, consistent stitching around cuffs, palms, thumbs, and reinforced areas. |
| Durable Cuff Construction | Helps protect the wrist and lower forearm while keeping the cuff stable during repeated use. | MIG welding, Stick welding, high-spatter work, foundries, steelwork, and industrial welding. | Check cuff leather, cuff stitching, gauntlet length, and edge reinforcement. |
| Reduced Seam Exposure | Seams placed away from contact zones can reduce damage from abrasion, heat, sparks, and rough handling. | High-abrasion tasks, structural welding, steel handling, fabrication, and demanding industrial work. | Look for seam placement away from the most exposed palm, thumb, finger, and outer-hand areas. |
In simple terms:
the best welding gloves are not defined by leather thickness alone. Strong protection comes from the full construction: cuff length, lining, Kevlar or aramid thread, reinforced palms, reinforced thumbs, welted seams, double stitching, and reduced seam exposure. For TIG welding, prioritize control and fit. For MIG, Stick, high-heat welding, and industrial fabrication, prioritize cuff coverage, lining, seam durability, and reinforcement.
Match Welding Gloves to Your Industry and Work Environment
The best welding gloves depend on more than the welding process. A TIG welder in automotive or EV manufacturing may need high dexterity, while a welder in construction, shipbuilding, oil and gas, or steel fabrication may need stronger heat protection, abrasion resistance, long cuffs, and reinforced seams.
Choose gloves based on the hazards of the work environment: heat, sparks, spatter, slag, sharp edges, rough steel, moisture, confined spaces, shift length, and repeated material handling.
For a broader product view, explore ARASWELD’s industrial welding gloves.
Construction and Infrastructure
Construction and infrastructure welding gloves should protect against sparks, spatter, rough steel, sharp edges, abrasion, and outdoor job-site conditions. These environments often involve bridges, steel frames, rail systems, pipelines, industrial buildings, and repair work.
Construction welders should look for:
- Heavy-duty leather for rough steel and abrasive surfaces.
- Long cuffs for wrist and lower-forearm protection.
- Reinforced palms and thumbs for repeated tool and material handling.
- Strong abrasion resistance for structural work.
- EN 407 and EN 388 ratings matched to the task.
For this environment, see construction and infrastructure welding gloves.
Shipbuilding and Marine
Shipbuilding and marine welding gloves should balance heat protection, abrasion resistance, cuff coverage, and comfort for long shifts. Marine fabrication can involve large steel structures, confined areas, moisture, hull sections, decks, pipe systems, and repeated fabrication tasks.
Shipbuilding welders should look for:
- Durable cowhide or split cowhide leather.
- Extended cuff coverage for sparks, spatter, and hot metal.
- Comfortable fit for long working periods.
- Reinforced seams for heavy fabrication work.
- Protection against heat, abrasion, and rough steel handling.
For this environment, see shipbuilding and marine welding gloves.
Steel Fabrication, Pressure Vessels and Heavy Manufacturing
Steel fabrication and pressure-vessel welding gloves should provide strong heat resistance, mechanical protection, and long-cuff coverage. These jobs often expose welders to hot steel, sharp edges, abrasive surfaces, large components, and long production shifts.
Steel fabrication and pressure-vessel welders should look for:
- Thick cowhide or split cowhide leather.
- Heat-resistant lining where exposure is higher.
- Long gauntlet cuffs for wrist and forearm coverage.
- Reinforced palms and seams for repeated handling.
- EN 407 and EN 388 ratings matched to thermal and mechanical risks.
For this environment, see steel fabrication and pressure vessel welding gloves.
Foundries, Steel Mills and Smelting Plants
Foundry, steel mill, and smelting work can involve extreme radiant heat, hot surfaces, sparks, slag, abrasion, and molten-metal splash risks. Not every heavy leather glove is suitable for these environments, so buyers should check the glove’s actual technical data and EN 407 performance before use.
Foundry and steel mill workers should look for:
- Maximum thermal protection matched to the task.
- Long forearm coverage for sparks, slag, and hot material.
- Heat-protective lining where insulation is required.
- Durable seams and reinforced high-wear areas.
- Molten-metal splash protection where applicable.
Oil, Gas and Refineries
Oil, gas, and refinery welding gloves should combine heat protection, abrasion resistance, grip, long-term comfort, and durable construction. These environments can involve pipework, tanks, pressure systems, confined spaces, outdoor work, and harsh industrial conditions.
Oil, gas, and refinery welders should look for:
- Heat protection for welding, hot surfaces, sparks, and spatter.
- Abrasion resistance for pipework and rough steel.
- Reinforced palms and reliable seams for repeated handling.
- Secure fit and strong grip for industrial tasks.
- Comfort for long shifts in demanding work areas.
For this environment, see oil, gas and refinery welding gloves.
Automotive and EV Manufacturing
Automotive and EV manufacturing welding gloves should prioritize dexterity, grip, comfort, and consistent protection for repetitive production work. Welders may handle thin metal, brackets, stainless steel, battery-related components, fixtures, and smaller fabricated parts.
Automotive and EV welders should look for:
- High dexterity for detailed torch control and component handling.
- Comfortable fit for repetitive production work.
- Flexible leather such as goatskin or deerskin.
- Good grip for tools, filler rods, and small parts.
- Protection matched to heat, abrasion, and sharp-edge risks.
For this environment, see automotive and EV manufacturing welding gloves. For precision TIG work, also review ARASWELD’s precision TIG welding gloves.
Welding Gloves by Industry and Hazard Comparison
Use this table to compare the main hazards, recommended glove type, leather choice, and key construction features for industrial welding environments.
| Industry | Common Hazards | Recommended Glove Type | Recommended Leather | Key Features to Check |
|---|---|---|---|---|
| Construction and Infrastructure | Sparks, spatter, sharp structural steel, abrasion, rough materials, outdoor conditions, and repeated tool handling. | Heavy-duty MIG or Stick welding gloves with extended cuff coverage. | Cowhide or split cowhide leather. | Long cuffs, reinforced palms, reinforced thumbs, durable seams, abrasion resistance, EN 407, and EN 388. |
| Shipbuilding and Marine | Heat, sparks, abrasive steel, confined spaces, moisture, long shifts, and repeated fabrication work. | Durable industrial welding gloves with strong heat and abrasion protection. | Cowhide or reinforced split cowhide leather. | Extended cuffs, comfortable fit, reinforced seams, durable leather, and all-day working comfort. |
| Steel Fabrication, Pressure Vessels and Heavy Manufacturing | High heat, sharp edges, hot steel, abrasive surfaces, large components, repeated welding, and heavy material handling. | Heavy-duty high-heat welding gloves for MIG, Stick, and industrial fabrication. | Thick cowhide or split cowhide leather. | Heat-resistant lining, long gauntlet cuffs, reinforced palms, strong seams, EN 407, EN 388, and EN 12477. |
| Foundries, Steel Mills and Smelting Plants | Extreme radiant heat, hot surfaces, sparks, slag, abrasive materials, and molten-metal splash risks where applicable. | High-heat industrial gloves selected for the exact thermal and molten-metal exposure risks. | Thick split cowhide or heavy-duty cowhide with suitable lining. | Long forearm coverage, heat-protective lining, durable seams, reinforcement, and tested EN 407 performance. |
| Oil, Gas and Refineries | Welding heat, rough pipework, abrasive steel, confined spaces, outdoor work, long shifts, and heavy industrial handling. | Durable industrial welding gloves with balanced heat protection, abrasion resistance, grip, and comfort. | Durable cowhide or reinforced split cowhide leather. | Strong seams, reinforced palms, secure fit, long cuffs, heat resistance, abrasion protection, and long-term comfort. |
| Automotive and EV Manufacturing | Thin metal, sharp edges, repetitive production work, detailed welding, fixtures, small parts, and frequent tool handling. | Flexible TIG or precision welding gloves with reliable protection and strong grip. | Goatskin or deerskin leather. | High dexterity, close fit, flexible leather, fingertip sensitivity, good grip, and process-specific protection. |
| Aerospace and Defense | Precision welding, sharp machined parts, heat exposure, tight-tolerance components, and high-consequence fabrication. | Precision or industrial welding gloves selected by process, material, and certification requirements. | Flexible leather for precision TIG or stronger leather for higher-heat fabrication. | Dexterity, EN 407, EN 388, cuff coverage, seam durability, technical documentation, and process suitability. |
| HVAC and Industrial Systems | Sheet metal edges, light-to-medium welding heat, sharp parts, repair work, tool handling, and tight workspaces. | Flexible protective welding gloves with good grip and mechanical protection. | Cowhide, goatskin, or flexible leather depending on the process and heat level. | Cut and abrasion resistance, secure fit, grip, dexterity, cuff coverage, and suitable EN 388 and EN 407 performance. |
In simple terms:
the best welding gloves for industrial work depend on the environment, not only the welding process. Construction, shipbuilding, steel fabrication, foundries, and oil and gas usually need stronger heat protection, long cuffs, abrasion resistance, and reinforced seams. Automotive, EV, aerospace, and HVAC work often need more dexterity, grip, fit, and precision, but still require protection matched to the real heat and mechanical hazards.
Welding Glove Price vs Value: What Should You Pay For?
The cheapest welding glove is not always the best value. A low-cost glove can become expensive if it wears out quickly, feels uncomfortable, or does not match the heat, sparks, spatter, abrasion, sharp edges, and working time of the job.When comparing professional welding gloves, look beyond price. Check leather quality, glove thickness, lining, cuff coverage, seam construction, reinforcement, expected lifespan, EN 407, EN 388, EN 12477, and cost per use.
Are Budget Welding Gloves Worth It?
Budget welding gloves can be worth it for light, occasional, or lower-risk welding tasks. They may be suitable for short welding sessions, basic training, maintenance work, or home-shop use where heat, spatter, and abrasion exposure are limited.
Budget welding gloves may be suitable for:
- Short-duration welding
- Light fabrication
- Basic repair work
- Training or beginner practice
- Low-to-moderate hazard exposure
Do not choose budget gloves for high-heat welding, heavy spatter, structural steel, rough material handling, or long industrial shifts unless the glove’s materials, construction, and safety information match the task.
Are Mid-Range Welding Gloves the Best Value?
Mid-range welding gloves are often the best value for regular welders. They usually offer a stronger balance of protection, comfort, durability, and cost than entry-level gloves.
Mid-range gloves are commonly suitable for MIG welding, general fabrication, workshop welding, repair work, and repeated material handling. A good mid-range glove should include dependable leather, practical cuff coverage, reinforced high-wear areas, and strong seam construction.
Mid-range welding gloves are often a good choice for:
- Regular welding work
- MIG welding and fabrication
- Workshop tasks
- Repair and maintenance
- Better cost per use
- Balanced comfort and durability
When Are Premium Industrial Welding Gloves Worth It?
Premium industrial welding gloves are worth it when glove failure, discomfort, or poor protection would cost more than the glove itself. This is common in high-heat work, heavy fabrication, construction, shipbuilding, refineries, steelwork, and long production shifts.
Premium gloves usually focus on stronger leather, reinforced palms, durable seams, extended cuffs, lining or insulation, and better performance in demanding environments.
Premium industrial welding gloves are worth considering for:
- High-heat welding
- Heavy fabrication
- Long production shifts
- Foundries and steel environments
- Oil, gas, and refinery work
- High replacement-cost environments
- Bulk and B2B procurement
For demanding fabrication and high-spatter work, review ARASWELD’s high-heat protection welding gloves.
How to Evaluate Welding Glove Value Instead of Just Price
The best way to evaluate welding glove value is to compare total performance over time, not only the purchase price. A glove that lasts longer, protects better, fits well, and supports safe hand movement can be more cost-effective than a cheaper glove that fails early.
When evaluating welding glove value, check:
- Expected glove lifespan based on heat exposure, spatter, abrasion, and use frequency.
- Leather type and thickness based on TIG, MIG, Stick, or industrial work.
- Cuff length and lining for comfort, insulation, and coverage.
- Seam construction and reinforcement for durability in high-wear areas.
- EN 407, EN 388, and EN 12477 where applicable.
- Cost per use, not only the first purchase price.
- Work environment, including fabrication, construction, shipbuilding, oil and gas, or high-heat industrial tasks.
Final buying tip: the best welding glove is not the cheapest glove or the thickest glove. It is the glove that provides the right balance of protection, comfort, durability, fit, dexterity, lifespan, and safety ratings for the actual work being performed.
For a full explanation of welding glove types, materials, EN 388, EN 407, EN 12477, care, and buying decisions, visit our
Welding Glove Price vs Value Comparison
Use this table to compare budget, mid-range, premium industrial, and B2B welding glove buying levels before choosing a product.
| Buyer Level | Typical Use | Protection Level | Durability Expectation | Best Buying Priority |
|---|---|---|---|---|
| Budget Welding Gloves | Occasional welding, short training sessions, light repairs, and lower-risk home-shop tasks. | Basic protection only when the glove matches light-to-moderate heat, sparks, and handling risks. | Lower lifespan during frequent use, heavy spatter, rough handling, or long welding shifts. | Secure fit and suitable basic protection. Do not use price alone as the main decision factor. |
| Mid-Range Welding Gloves | Regular MIG welding, general fabrication, workshop welding, maintenance, and repeated material handling. | Balanced protection with better leather, seam construction, cuff coverage, and comfort than entry-level gloves. | Good lifespan when matched to the welding process, work environment, and maintenance routine. | Balance leather quality, heat protection, comfort, reinforcement, and cost per use. |
| Premium Industrial Welding Gloves | High-heat welding, heavy fabrication, structural steel, construction, shipbuilding, refineries, and long shifts. | Stronger construction with reinforced palms, durable seams, extended cuffs, and suitable thermal or mechanical protection. | Higher service life when selected correctly and inspected regularly. | Prioritize protection, lifespan, lining, cuff length, reinforcement, seam quality, EN 407, EN 388, and EN 12477. |
| Bulk and B2B Procurement | Manufacturing teams, contractors, fabrication shops, shipyards, refineries, and industrial safety programs. | Should be selected according to documented job hazards, welding processes, safety requirements, and worker roles. | Focus on consistent quality, predictable replacement cycles, and reliable performance across repeated use. | Compare total cost of ownership, technical specifications, worker comfort, glove consistency, and replacement frequency. |
In simple terms:
the best welding glove value comes from matching the glove to the real job, not from choosing the lowest price. Budget gloves can work for light tasks, mid-range gloves often provide the best value for regular welding, and premium industrial gloves are worth it when heat, spatter, abrasion, long shifts, or replacement costs are high. For B2B buyers, compare total cost of ownership, not only unit price.
Shop Professional Welding Gloves by Application
ARASWELD welding gloves are built for welders who need reliable protection, durable leather, practical comfort, and task-based performance. Choose the right glove for your welding process, heat level, dexterity needs, spatter exposure, abrasion risk, and work environment.
For TIG and Precision Welding
Choose flexible ARASWELD gloves when you need fingertip sensitivity, secure grip, comfort, filler-rod control, and precise torch movement for TIG welding, automotive work, EV manufacturing, and detailed fabrication.
Explore Precision TIG & EV Gloves
For MIG, MAG and High-Heat Welding
Choose durable ARASWELD gloves for MIG welding, MAG welding, high heat, sparks, spatter, structural work, heavy fabrication, and industrial welding.
Explore High-Heat Protection Gloves
For Impact, Abrasion and Demanding Industrial Work
Choose reinforced ARASWELD gloves for abrasion, rough materials, repeated handling, sharp edges, impact risks, and demanding industrial tasks.
Explore Impact & Abrasion GlovesFAQ About Choosing Welding Gloves
What Type of Welding Gloves Should I Use for TIG Welding?
For TIG welding, use gloves that provide high dexterity, fingertip sensitivity, and precise torch control. TIG welding usually needs thinner, more flexible gloves made from materials such as goatskin, deerskin, or flexible leather.
TIG welding gloves should fit closely without being tight, so the welder can control the torch and filler rod safely.
What Type of Welding Gloves Should I Use for MIG Welding?
For MIG welding, use gloves that balance heat protection, spatter resistance, durability, and hand movement. MIG welding usually creates more sparks and spatter than TIG welding, so the gloves should provide stronger protection.
Good MIG welding gloves often use cowhide or split cowhide leather, reinforced seams, lining, and medium-to-long cuffs.
Are Stick Welding Gloves Thicker Than TIG Gloves?
Yes, Stick welding gloves are usually thicker than TIG welding gloves because Stick welding often creates more heat, sparks, slag, and spatter. Thicker leather helps improve protection in heavy-duty welding conditions.
However, thickness should not be the only factor. Buyers should also check EN 407, EN 388, cuff length, lining, stitching, and the glove’s intended use.
What Is the Best Leather for Welding Gloves?
The best leather for welding gloves depends on the welding process and work environment. Goatskin is often better for TIG welding and precision work, while cowhide and split cowhide leather are often better for MIG, Stick, fabrication, and high-heat welding.
For industrial welding, the best choice is the leather that balances heat resistance, durability, abrasion protection, comfort, and dexterity.
Are Cowhide or Goatskin Gloves Better for Welding?
Cowhide gloves are generally better for durability, heat resistance, abrasion protection, and heavier welding work. Goatskin gloves are generally better for dexterity, comfort, fingertip sensitivity, and precision welding.
Choose cowhide for MIG, Stick, fabrication, and rough handling. Choose goatskin for TIG welding, detailed work, automotive welding, EV manufacturing, and precision control.
What Is the Difference Between Type A and Type B Welding Gloves?
EN 12477 Type A welding gloves generally provide higher protection but lower dexterity. Type B welding gloves generally provide higher dexterity but lower protection.
Type A is often used for more demanding MIG, Stick, and industrial welding tasks. Type B is often used for TIG and precision welding. Always check the glove’s actual EN 407, EN 388, EN 12477, material, thickness, cuff, lining, and intended application before buying.
Are Welding Gloves Fully Heat Proof?
No, welding gloves are heat-resistant, not fully heat proof. They are designed to reduce heat, flame, spark, spatter, and hot-surface risks, but they have limits.The protection level depends on the glove’s material, thickness, lining, cuff length, EN 407 rating, exposure time, and welding conditions. Never use welding gloves beyond their intended safety limits.
How Much Should Professional Welding Gloves Cost?
The cost of professional welding gloves depends on leather type, construction quality, lining, cuff length, safety ratings, reinforcement, brand, and order quantity. A cheaper glove is not always the best value if it wears out quickly or does not match the job hazards.For professional use, evaluate cost per use, not only the first purchase price. Stronger gloves may be worth it for high-heat welding, industrial work, long shifts, and bulk procurement.
How Long Should Welding Gloves Last?
Welding glove lifespan depends on heat exposure, spatter level, abrasion, work duration, leather quality, stitching, lining, and maintenance. Gloves used daily in heavy industrial welding usually wear faster than gloves used occasionally in light work.
A welding glove lasts longer when it matches the welding process, fits correctly, and is inspected regularly for damage.
When Should I Replace Damaged Welding Gloves?
Replace welding gloves when you see holes, open seams, burned areas, stiff leather, damaged lining, reduced grip, exposed stitching, or loss of heat protection. Damaged gloves can reduce safety and make welding work harder to control.
Do not continue using gloves if heat, sparks, sharp edges, or spatter can reach the hand through worn or damaged areas.
What Size Welding Gloves Should I Choose?
Choose a welding glove size that fits securely without pressure. The glove should allow safe finger movement, grip control, torch handling, and material handling without loose fingertips or tight pressure points.
Measure your palm circumference and hand length, then compare them with the product size chart. TIG gloves usually need a closer fit, while MIG and Stick gloves may need slightly more room because of lining and thicker leather.
Which Safety Standards Should Welding Gloves Have?
Professional welding gloves should be checked for relevant safety standards such as EN 407, EN 388, and EN 12477. These standards help buyers compare heat protection, mechanical protection, and welding-glove suitability.
- EN 407 covers heat and flame protection.
- EN 388 covers mechanical risks such as abrasion, cut, tear, and puncture.
- EN 12477 covers protective gloves for welders.
The best choice is a welding glove whose standards, material, construction, and intended use match the actual welding task.
