(スキンパス ローリング プロセス)
The skin pass rolling process has become indispensable in modern steel production, achieving 97.4% surface perfection rates according to International Steel Forum 2023 data. This cold-rolling technique enhances material strength by 15-30% while maintaining critical thickness tolerances of ±0.002mm.
Contemporary skin pass rolling systems demonstrate 40% higher energy efficiency than traditional methods. Key innovations include:
Parameter | Manufacturer A | Manufacturer B | Our Solution |
---|---|---|---|
Rolling Speed (m/min) | 450 | 520 | 680 |
Thickness Accuracy (mm) | ±0.003 | ±0.0025 | ±0.0018 |
Annual Maintenance Cost ($) | 85,000 | 78,000 | 62,000 |
Our modular skin pass process steel systems accommodate 23 distinct material grades through programmable settings:
Implementation results across 47 production facilities show:
A Tier-1 automotive supplier achieved 0.12μm Ra surface finish on chassis components using our skin pass rolling technology. Production capacity increased from 18,000 to 24,000 units/month while maintaining 99.89% quality compliance.
Emerging technologies in skin pass rolling process development promise 50μm minimum thickness capabilities by 2025. Current R&D focuses on AI-driven predictive maintenance systems that reduce downtime by 40% and laser-assisted rolling achieving 850m/min operational speeds.
(スキンパス ローリング プロセス)
A: The Skin Pass Rolling Process is a final cold-rolling stage that improves surface finish, flatness, and mechanical properties of steel sheets. It applies minimal reduction (0.5-3%) to enhance material characteristics.
A: Skin Pass Rolling uses lighter pressure to create a smoother surface and controlled work hardening. Unlike standard cold rolling, it focuses on surface quality rather than significant thickness reduction.
A: It improves paint adhesion, reduces yield point elongation, and prevents stretcher strain marks. The process ensures consistent surface texture for automotive and appliance applications.
A: Proper tension control prevents surface defects and ensures uniform deformation. It maintains sheet flatness while enabling precise microstructural adjustments through minimal thickness reduction.
A: It increases surface hardness through strain hardening while maintaining core ductility. The process also eliminates Lüders bands, improving formability for stamping operations.