RETON Ring Mesh Co., Ltd.A Professional, Reliable And Experienced Metal Products Manufacturer
+86-18632192156 sales@rt-ringmesh.com
A metal mesh glove is a hand protection device constructed from interlocked metallic rings. While stainless steel is the most common material, a metal mesh glove may also be made from other alloys depending on the application requirements. The term metal mesh glove encompasses products used in glass handling, metal fabrication, recycling, and food processing. This article focuses on stainless steel mesh gloves with technical data on puncture resistance, gauge selection, and industry-specific performance. The material grade of a metal mesh glove determines its corrosion resistance and mechanical strength. Type 304 stainless steel contains 18 percent chromium and 8 percent nickel. This grade provides adequate corrosion resistance for dry indoor applications such as glass cutting and metal assembly. Type 316L stainless steel contains 16 percent chromium, 10 percent nickel, and 2 percent molybdenum. The molybdenum content provides resistance to chloride attack, making 316L the preferred grade for wet environments and food processing. For specialized applications such as cleanroom assembly, a metal mesh glove may use nickel-plated steel rings that minimize particle generation.
The puncture resistance of a metal mesh glove is measured according to EN388 using a standard steel point with a diameter of 1 millimeter. The test point is driven into the glove material at a constant speed of 100 millimeters per minute while the force is recorded. A metal mesh glove with 0.45 millimeter ring thickness typically achieves puncture forces between 65 and 85 newtons. This corresponds to EN388 Level 3 for puncture resistance. A glove with 0.55 millimeter ring thickness achieves 80 to 100 newtons, which meets EN388 Level 4. The table below presents puncture resistance data for different metal mesh glove configurations. Ring Thickness Ring Internal Diameter Puncture Force Newtons EN388 Puncture Level Recommended Application 0.4 mm 3.2 mm 50 to 65 N Level 3 Light assembly 0.45 mm 3.5 mm 65 to 85 N Level 3 Glass handling 0.5 mm 4.0 mm 75 to 95 N Level 4 Recycling sorting 0.55 mm 4.2 mm 80 to 100 N Level 4 Metal fabrication 0.6 mm 4.5 mm 85 to 105 N Level 4 Heavy industrial The puncture resistance data shows that a metal mesh glove provides significantly higher protection against sharp points compared to fabric alternatives. A fabric cut-resistant glove with aramid fiber reinforcement typically achieves puncture forces of 20 to 40 newtons. The metal mesh glove provides a safety margin of 200 to 300 percent against puncture hazards. This difference is critical in applications where broken glass, sharp metal scrap, or animal bones are present in the work environment.
The gauge number of a metal mesh glove refers to the number of rings per linear inch. A 7 gauge glove has 7 rings per inch and a ring internal diameter of approximately 3.5 millimeters. A 10 gauge glove has 10 rings per inch and a ring diameter of 2.8 millimeters. A 13 gauge glove has 13 rings per inch and a ring diameter of 2.2 millimeters. A 15 gauge glove has 15 rings per inch and a ring diameter of 1.8 millimeters. The selection of gauge affects both dexterity and protection. For glass handling applications, a 10 gauge metal mesh glove provides an optimal balance of dexterity and protection. The ring openings are small enough to prevent glass shards from entering the mesh while allowing sufficient finger movement for gripping glass sheets. Data from glass manufacturing facilities shows that 10 gauge gloves reduce cut injury rates by 85 percent compared to fabric gloves. The 10 gauge configuration also provides adequate puncture resistance for handling broken glass edges. For metal fabrication applications, a 7 gauge or 8 gauge metal mesh glove is preferred. The larger ring size provides better air circulation, which reduces hand perspiration during hot work. The lower ring density also makes the glove easier to clean when it becomes coated with cutting fluids or lubricants. The trade-off is that the larger ring openings may allow small metal burrs to contact the skin. Facilities handling fine metal shavings should select a 10 gauge or higher glove. For recycling and waste sorting applications, a 13 gauge or 15 gauge metal mesh glove provides maximum protection against mixed sharp objects. The small ring openings prevent penetration from needles, broken glass fragments, and sharp metal pieces. The higher ring density also creates a smoother glove surface that does not snag on debris. The primary limitation of high gauge gloves is that they are more difficult to clean because debris can become trapped in the dense mesh.
A metal mesh glove in industrial applications contacts abrasive surfaces such as concrete, metal edges, and rough plastic. The abrasion resistance of the glove determines how long it maintains its protective properties. The EN388 abrasion test uses sandpaper with a specified grit size under a pressure of 9 kilopascals. The glove material is rubbed in a circular motion until wear-through occurs. A metal mesh glove with 0.5 millimeter rings achieves 10,000 to 15,000 abrasion cycles before failure, which is Level 4 on the EN388 scale. The wear life of a metal mesh glove in actual use depends on the application environment. In a glass handling facility where gloves contact glass edges multiple times per hour, the typical service life is 12 to 18 months. In a metal stamping facility where gloves contact abrasive metal surfaces, the service life is 8 to 12 months. Facilities can extend glove life by implementing regular inspection schedules and rotating multiple gloves per worker. Rotating three gloves per worker doubles the service life of each glove compared to using a single glove continuously.
The cleaning protocol for a metal mesh glove depends on the contamination present. For general industrial applications with oil and grease contamination, the glove should be immersed in a degreasing solution at 50 degrees Celsius for 15 minutes, followed by a hot water rinse at 70 degrees Celsius. The glove should then be dried with compressed air or in a drying cabinet at 60 degrees Celsius for 30 minutes. For food processing applications, the metal mesh glove requires a three-step cleaning process. Step one is a cold water rinse to remove surface fat and protein. Step two is immersion in an alkaline detergent solution at 50 degrees Celsius for 10 minutes. Step three is a sanitizing rinse with water at 82 degrees Celsius for 30 seconds. This protocol removes 99.9 percent of organic residues and reduces bacterial counts below detectable levels.
Field repair of a metal mesh glove is not recommended because the weld integrity of repaired rings cannot be verified without specialized equipment. A glove with a broken ring should be returned to the manufacturer for professional repair or replaced with a new glove.
Yes. A metal mesh glove is conductive because it is made from metal rings. The glove should not be worn when working on or near energized electrical equipment. For electrical work, use gloves specifically rated for electrical insulation.
A stainless steel metal mesh glove can be used at temperatures from -20 degrees Celsius to 200 degrees Celsius for intermittent contact. For continuous contact with hot surfaces above 60 degrees Celsius, a thermal liner glove should be worn under the mesh glove.
Rust spots on a metal mesh glove indicate that the material grade is 304 stainless steel or lower. The rust can be removed by soaking the glove in a 10 percent citric acid solution at 50 degrees Celsius for 30 minutes, followed by thorough rinsing and drying. For long-term corrosion prevention, specify a 316L metal mesh glove.
The weight of a metal mesh glove affects worker fatigue over a full shift. A 7 gauge glove with 0.5 millimeter rings weighs approximately 120 grams for a size large. A 10 gauge glove with 0.45 millimeter rings weighs 105 grams. A 13 gauge glove with 0.4 millimeter rings weighs 95 grams. The difference of 25 grams between the heaviest and lightest options may seem small, but biomechanical studies show that each additional 10 grams of handborne weight increases muscle fatigue by 8 percent over an 8-hour shift. The optimal glove weight for a given application balances protection needs against fatigue. For tasks requiring high cut and puncture protection, the heavier 7 gauge glove is appropriate despite the higher fatigue rate. For tasks with lower hazard levels, the lighter 13 gauge glove reduces fatigue while still providing adequate protection. RETON Ring Mesh Co., Ltd. offers metal mesh gloves in all gauge options to match application requirements. RETON Ring Mesh Co., Ltd. manufactures metal mesh gloves with EN388 cut and puncture ratings certified by independent laboratories. The company provides technical support for glove selection based on specific industrial hazards.
Processing Demand Survey