Shoe Outsole Laser Engraving Marking Machine, Sole Logo Character Pattern Carving Equipment For Footwear Making

Model: LAS-SOLE-MARK-50W

Specification	Parameter Details
Item No.	LAS-SOLE-MARK-50W
Laser Source Type	Fiber laser generator
Rated Laser Power	50W
Marking Working Area	300×300 mm
Marking Precision	±0.02 mm
Adjustable Marking Speed	0–7000 mm/s
Control System	Industrial PC with dedicated marking software, external monitor operation
Safety Structure	Fully enclosed laser shielding cabin + 3-color warning stack light + emergency stop button
Working Voltage	AC220V 50Hz
Total Installed Power	1.2 KW
Applicable Materials	Rubber outsole, EVA/bio-EVA midsole, TPR sole, PU synthetic leather, plastic shoe accessories
Machine Overall Dimension(L×W×H)	1100×800×1600 mm
Export Wooden Box Size(L×W×H)	1250×950×1750 mm
Total Packing Volume	Approx. 2.08 CBM
Net Weight	320 KG
Gross Weight	380 KG

Shoe Outsole Laser Engraving Marking Machine

This sole laser marking equipment adopts an enclosed light‑proof cabin to block laser leakage and effectively protect operators against light radiation injury. Equipped with a 50W high‑stability fiber laser source, it delivers clear and wear‑resistant marking without ink consumables. Its 300×300 mm large working area accommodates most adult and children shoe outsole sizes. High marking precision of ±0.02 mm enables fine carving for logos, texts, QR codes and complex patterns. Steplessly adjustable marking speed meets requirements for shallow anti‑slip textures and deep brand marking. The independent industrial PC system stores massive pattern files for rapid style switching. A top‑mounted red‑yellow‑green stack light displays standby, running and fault status in real time. A lockable lower storage cabinet provides space for tools and spare parts to keep the workshop neat. Universal casters together with foot pads allow flexible position movement and stable fixed‑point operation. Requiring no printing ink consumables and generating zero VOC emissions, it fully adapts to low‑carbon shoemaking production. Non‑contact laser processing prevents extrusion deformation on sole surfaces, and the machine supports both mass‑batch production and small‑batch customized pattern engraving.

This sole laser marking equipment is widely used in sneaker factories, casual shoe manufacturers, outsole processing plants and eco bio‑EVA footwear production workshops. Core applications include engraving brand logos, specification texts, anti‑counterfeit QR codes and decorative patterns on rubber, TPR, EVA and bio‑EVA outsoles. Extended scenarios cover laser marking for shoe plastic ornaments, heel components and surface texture processing of midsoles. Replacing the traditional ink printing process, it solves the problems of logo fading and peeling after long‑time wearing, and is suitable for both large‑volume bulk orders and personalized custom shoe marking services.

Before startup, inspect the cabin door interlock, warning light and laser cooling system. Open the software to import or edit target logo, text or pattern files and adjust marking parameters accordingly. Place the outsole flat on the worktable and fix its position, close the shielding cabin door and launch automatic laser marking processing. After daily operation, shut down the laser source first, then power off the industrial PC and clean dust inside the cabin. In terms of social responsibility and environmental protection, ink‑free laser marking removes waste from printing consumables, cuts chemical purchasing and disposal costs and reduces production carbon footprint to satisfy EU carbon tariff and ESG audit standards. 

The enclosed cabin equipped with smoke exhaust system timely collects processing fumes; there is no ink‑solvent volatilization or VOC pollution to maintain good workshop air quality. Stable low‑energy‑consumption laser‑processing data supports supply‑chain environmental disclosure and assists shoe factories in passing sustainable procurement audits from international sportswear brands. The light‑shielding safety cabin protects workers from laser radiation risks, and automated positioning marking reduces repetitive manual handling to improve occupational safety for post‑processing operators.