Labor Protection

1. High-Temperature Operation Protection

• High-temperature resistant clothing for metallurgical/glass factory workers (furnace operations, smelting workshops)
• Thermal insulation gloves and boot covers for ceramic firing workers
• Anti-scald coveralls for boiler maintenance personnel

• Ultra-High Temperature Protection: Withstands temperatures above 500°C, resisting splashes of molten metal (e.g., aluminum/steel slag) and prolonged thermal radiation. It is 70% lighter than traditional asbestos cloth and carries no carcinogenic risks.
• Breathable Flame Retardant Design: Honeycomb-shaped ventilation structures enhance heat dissipation by 30%, while complying with GB 8965.1-2020 flame retardant standards (burn damage length <100mm).
• Thermal Aging Resistance: Maintains >95% strength after 500 high-temperature cycles (200°C → room temperature), with a service life twice that of aramid fabrics.

2. Hazardous Chemical Protection

• Acid-base protective clothing for the chemical industry
• Anti-permeation aprons for pesticide production workshops
• Hazardous material handling gloves for laboratories

• Chemical Barrier Capability: Surface fluorine coating resists penetration by 98% concentrated sulfuric acid, 30% sodium hydroxide, and other corrosive liquids (penetration time >60 minutes, meeting EN 374 standards).
• Anti-Static Ignition: Conductive carbon fiber blending reduces surface resistance to <10⁹Ω, preventing electrostatic explosions of volatile chemical gases (suitable for oil refining scenarios).
• Lightweight Comfort: At <300g/m², it is 50% lighter than traditional rubber chemical suits, reducing wearer fatigue (e.g., 40% lower exhaustion after 8-hour operations).

3. Mechanical Processing and Cutting Protection

• Anti-cut gloves for metal processing (knives, gear operations)
• Anti-puncture clothing for glass curtain wall installation
• Protective gloves for aerospace precision component assembly

• High-Strength Cut Resistance: Composite carbon fiber and UHMWPE achieve a cut resistance of 30N (ANSI/ISEA 105 Level 5, highest grade), withstanding  (utility knife) and hacksaw blade scratches.
• Balance of Wear Resistance and Sensitivity: At 0.8mm thickness, finger tactile sensitivity reaches 90% (vs. ~60% for traditional leather gloves), suitable for precision assembly (e.g., electronic component welding).
• Metal Spatter Resistance: Withstands 1200°C welding slag impacts (no damage within 5 seconds), outperforming cowhide gloves (critical damage temperature 800°C).

4. Electronic and Dust Environment Protection

• Anti-static clothing for semiconductor cleanrooms
• Dust-proof mask filter materials for mines/cement factories
• Anti-metal dust gloves for lithium battery workshops

• Static Control Capability: Conductive carbon fiber grid density >50 threads/cm reduces static decay time to <0.1 seconds (ISO 14644-5 compliant), preventing chip damage from electrostatic discharge (yield rate increased to 99.5%).
• High-Efficiency Filtration: Nano-grade carbon fiber filters achieve >99.97% efficiency for 0.3μm particles (HEPA standard) with <200Pa breathing resistance, better than traditional PP melt-blown fabric (>300Pa).
• Anti-Dust Adhesion: Oleophobic/hydrophobic surface treatment reduces dust accumulation by 70%, extending replacement cycles (e.g., coal mine masks from daily to 3 times/week).

5. Low-Temperature and Extreme Environment Protection

• Anti-cryogenic frostbite gloves for liquid nitrogen storage areas
• Insulating mid-layers for polar expedition cold-proof clothing
• Non-slip boot covers for cold storage workers

• Ultra-Low Temperature Tolerance: Maintains >15% elongation at break in -196°C liquid nitrogen (traditional PVC becomes brittle and fractures), ensuring flexibility (e.g., valve operation torque >50N·m).
• Thermal Insulation Design: Hollow carbon fiber filling has a thermal conductivity of 0.02W/(m・K), 1.5x warmer than down at the same thickness, suitable for -50°C environments (e.g., Arctic 科考站 operations).
• Non-Slip and Weather Resistance: Carbon fiber-reinforced rubber soles achieve a friction coefficient >0.4 at -30°C (vs. <0.2 for ordinary rubber), reducing ice slip risks.

6. Comprehensive Protection for Special Industries

• "Flame Retardant + Radiation Resistant" coveralls for welders
• "Anti-Radiation + Flame Retardant" gloves for nuclear power plant maintenance
• "Anti-Static + Oil Resistant" aprons for aviation fuel handling

• Multi-Functional Composite: Three-layer design (outer flame retardant, middle lead film for radiation protection, inner moisture-absorbing layer) meets nuclear power plant radiation dose requirements (<2.5μSv/h) and passes EN 61482-1-2 arc resistance tests.
• Industry Customization: Oil-resistant carbon fiber aprons developed for the petroleum industry retain >90% strength after 72-hour aviation kerosene immersion, outperforming nitrile rubber (70% retention).

Technical Advantage Comparison (vs Traditional Labor Protection Materials)

Future Development Directions

1. Intelligent Labor Protection Integration: Develop carbon fiber-based "protection + monitoring" equipment, such as high-temperature suits with built-in heart rate sensors to warn of heatstroke risks (via real-time APP temperature data).
2. Bio-Based Sustainable Materials: Use mycelium biosynthesis for carbon fiber production, reducing petroleum reliance and shortening degradation cycles to 1-2 years (vs. >100 years for traditional synthetic fibers).
3. Adaptive Protection Technology: Develop temperature-sensitive color-changing carbon fiber fabrics that visually warn of high temperatures (>260°C), enhancing operational safety (e.g., welding hazard zone visualization).