Get laser cutting, bending, welding, and finishing for enclosures, brackets, chassis, and other thin-sheet components.
Ideal for:
From cutting and bending to welding, forming, and assembly, we support sheet metal enclosures, cabinets, brackets, and structural parts from prototypes through production.
Features: High-precision cutting, complex contours, small slits
Material: carbon steel, stainless steel, aluminum alloy, galvanized sheet, copper alloy
Tolerance capability: ±0.05 ~ ±0.10 mm
Applicable scenarios:
Features: High efficiency, suitable for regular hole patterns and batch processing
Material: carbon steel, stainless steel, aluminum alloy
Tolerance capability: ±0.10 ~ ±0.20 mm
Applicable scenarios:
Features: Good angle consistency and high repeatability
Material: carbon steel, stainless steel, aluminum alloy, galvanized sheet
Angle accuracy: ±0.2° ~ ±0.5°
Applicable scenarios:
Features: Solid structure, suitable for complex assembly
Material: carbon steel, stainless steel, aluminum alloy
Assembly accuracy: ±0.2 ~ ±0.5 mm (based on fixture positioning)
Applicable scenarios:
Features: High connection strength, not easy to loosen
Material: carbon steel, stainless steel, aluminum alloy
Positioning accuracy: ±0.10 mm
Applicable scenarios:
Features: Change the shape of the plate to achieve complex geometric structures
Material: carbon steel, stainless steel, aluminum alloy
Forming accuracy: ±0.10 ~ ±0.30 mm
Applicable scenarios:
Features: Multi-part combination, one-stop delivery
Material: Sheet metal + fasteners
Assembly consistency: Control based on fixtures and assembly standards
Applicable scenarios:
We work with carbon steel, stainless steel, aluminum alloys, galvanized steel, copper, and brass. Each offers different trade-offs in strength, weight, corrosion resistance, conductivity, formability, and cost.
Choose material and thickness based on load, environment, finish, and budget. Our engineers can recommend options for your cutting, bending, welding, and finishing requirements.
SUS201 is an austenitic stainless steel system with high strength and certain corrosion resistance. The material cost is usually lower than SUS304.
Applicable scenarios: interior decorative panels, home appliances and commercial equipment casings, structural parts and shields with general corrosion resistance requirements, cost-sensitive stainless steel exterior parts, etc.
View Material Detail Get an Instant QuoteGet fast drawing review, Design for Manufacturability (DFM) feedback, process-based quoting, engineer oversight, and quality control from prototype through production.
Upload DWG, DXF, dimensioned PDF, STEP, and other common files. Automated parsing identifies thickness, holes, bends, forming features, and assemblies to support process selection, flat-pattern planning, DFM review, and quoting.
We review hole size and edge distance, bend radii and interference, forming feasibility, weld and assembly design, deformation risk, and critical dimensions. You receive practical suggestions to improve manufacturability and production consistency.
Quotes consider geometry, material, thickness, quantity, tolerance, and required operations. We match cutting, stamping, turret punching, bending, welding, riveting, forming, and assembly processes so you can compare price and lead-time options.
Engineers review the selected processes and production parameters before manufacturing. In-process quality controls help keep dimensions, structural strength, and surface finish aligned with your drawing requirements.
Choose from carbon steel, stainless steel, aluminum alloys, galvanized steel, and common sheet thicknesses. Process-specific tolerance targets, fixtures, and assembly controls support consistent enclosures, brackets, frames, and structural assemblies.
We support sheet metal parts from early prototypes and functional testing through low-volume and production runs across robotics, automotive, aerospace, consumer products, and medical equipment.
Laser cutting, stamping, turret punching, bending, welding, riveting, forming, and assembly are combined around your material, geometry, quality, and cost requirements.
Explore representative applications for enclosures, ventilation panels, brackets, welded structures, and riveted assemblies. Each example highlights common process considerations reviewed before production.
Precision cutting creates clean contours, slots, and mounting features before bending and assembly.
Turret punching produces repeatable hole patterns efficiently for ventilation, mounting, and batch production.
Controlled bend sequences and tooling maintain angle consistency across brackets, chassis, and frame components.
Fixture-controlled MIG, TIG, or spot welding supports stable geometry and reliable structural connections.
Press-fit nuts, studs, and fasteners add strong, repeatable connection points for final assembly.
We support the following processes from prototype through production:
We recommend a process combination based on part geometry, material, and order volume.
We can recommend materials based on strength, corrosion resistance, finish, and cost requirements.
For the most complete review, provide both a dimensioned 2D drawing and a 3D model.
Yes. Engineers review bend radii, hole-to-edge distances, forming methods, weld structures, and other production risks, then provide practical recommendations.
Yes. We support one-off prototypes, small and medium batches, and ongoing production.
We provide MIG, TIG, and spot welding, and can deliver complete sheet metal assemblies.
The typical range is 0.5–12 mm, although available thicknesses vary by material and process.
Typical lead times are 3–5 business days for prototypes and 5–10 business days for small batches, subject to process and quantity review.
All files are stored encrypted, NDAs can be signed, and customer intellectual property rights are protected.
