Sheet metal fabrication, from prototype to production.

Factory-direct fiber laser cutting, CNC punching, press brake forming, welding, hardware insertion, finishing, and assembly for custom enclosures, brackets, panels, and structural components, supported by DFM and dimensional inspection.

Cutting, forming, joining, and production stamping

Fiber laser cutting detailed profiles from sheet metal with visible process sparks

Fiber Laser Cutting & CNC Punching

Fiber laser cutting produces profiles, holes, slots, and detailed flat patterns across sheet and plate materials. CNC turret punching adds efficient perforations, louvers, knockouts, and formed features for repeat production.

  • Fiber Laser Cutting
  • CNC Turret Punching
  • Detailed Flat Patterns
Press brake punch and die forming a controlled bend in a sheet metal workpiece

CNC Press Brake Forming

Multi-axis press brakes form flanges, hems, offsets, and multi-bend geometries using planned bend sequences and material-specific tooling. Bend allowance, springback, radius, and feature proximity are reviewed before production.

  • Multi-Axis Forming
  • Controlled Bend Angles
  • Complex Enclosures
Assembled sheet-metal electronics chassis with formed panels, ventilation openings, and installed hardware

Welding & Assembly

TIG, MIG, and spot welding join steel, stainless steel, aluminum, tubing, and fabricated components. Fixtures, weld sequencing, grinding, and inspection are selected around structural and cosmetic requirements.

  • TIG & MIG Welding
  • Spot Welding
  • Fabricated Assemblies
Conventional insertion press aligned over a self-clinching threaded nut in a galvanized sheet metal chassis

Hardware Insertion & Secondary Operations

Threaded nuts, standoffs, studs, blind rivets, weld nuts, and other specified hardware are installed after forming using controlled insertion equipment. Tapping, countersinking, riveting, and sub-assembly are also available.

  • PEM® Hardware
  • Rivets & Weld Nuts
  • Assembly-Ready Parts
Open progressive stamping die with a connected metal carrier strip passing through successive forming stations

Progressive Die Stamping

Progressive dies combine blanking, piercing, forming, and cut-off operations across successive stations for repeat high-volume production. Fabricated prototypes and pilot builds can confirm geometry before dedicated stamping tooling is released.

  • Progressive Dies
  • Coil-Fed Production
  • High-Volume Parts

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Fabrication planned through finishing and assembly

Press brake punch and die demonstrating controlled bend geometry in a sheet metal workpiece

DFM and Flat-Pattern Engineering

Our engineers review the folded model and drawing against material thickness, bend tooling, K-factor, springback, grain direction, hardware locations, weld access, and finish requirements before releasing the flat pattern.

  • Bend relief, flange length, hole-to-bend, and interference review
  • Flat patterns and bend deductions generated for the selected process
Metal components suspended on a real powder-coating line for controlled finishing

One Source for Fabrication and Finishing

Cutting, forming, welding, hardware installation, surface preparation, coating, marking, and assembly are coordinated as one manufacturing plan, reducing handoffs between operations.

  • Powder coating, anodizing, plating, conversion coating, and passivation
  • Cosmetic zones, masking, grain direction, and color requirements controlled through finishing
Industrial CNC press brake cell supporting prototype and repeat sheet metal production

Prototype Agility, Production Scale

Laser cutting and press brake forming support fast prototypes and low-volume production without dedicated dies. Proven designs can transition to fixtures, automation, or progressive stamping as demand increases.

  • Prototype sheet metal parts shipped in as fast as 3–5 days
  • Production planning for repeat fabrication and high-volume stamped parts

Defined cutting, forming, and assembly controls.

Material grade, thickness, grain direction, bend radius, feature location, weld sequence, hardware, and finish all influence the completed assembly. Drawing-defined requirements are reviewed before fabrication and carried into inspection.

FABRICATION CAPABILITIES

Sheet metal fabrication specifications

  • Laser cutting up to 20 mm carbon steel, 15 mm aluminum, and 10 mm stainless steel
  • Large-format cutting beds for sheets up to 3000 × 1500 mm
  • Laser-cut feature tolerances down to ±0.1 mm when specified and approved
  • Formed dimensions down to ±0.2 mm and bend angles to ±1°, subject to geometry
  • PEM® hardware, blind rivets, weld nuts, tapping, and countersinking available
  • TIG, MIG, and spot welding for sheet metal, plate, tubing, and fabricated assemblies
  • FAI, dimensional reports, material certificates, CoC, weld inspection, and NDT available

Sheet metal materials and finishing options

Sheet, Plate & Conductive Metals

Materials are selected around strength, formability, weldability, corrosion resistance, conductivity, appearance, weight, and operating environment.

Aluminum Alloys
5052-H32 · 6061-T6 · 1060
Stainless Steel
304 · 316L · 430
Cold-Rolled & Carbon Steel
SPCC · Q235 · 1018
Galvanized Steel
SGCC · SECC
Copper
C110 Copper · Busbar Grades
Brass
C260 Brass
Explore All Materials

Protective & Cosmetic Finishes

Finishes are selected for corrosion protection, wear, electrical performance, cleanability, color, texture, and cosmetic requirements. Masking and critical interfaces are defined before processing.

Powder Coating
Matte · Gloss · Textured · Custom Colors
Anodizing
Type II · Type III Hardcoat · Clear · Black · Colors
Brushing & Polishing
No. 4 Brushed · Directional Grain · Anti-Fingerprint
Plating
Clear Zinc · Yellow Zinc · Nickel
Chemical Treatment
Chromate Conversion · Stainless Steel Passivation
Printing & Marking
Silk Screening · Pad Printing · Laser Marking
Explore All Finishes

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Sheet metal fabrication questions, answered

Provide a folded 3D CAD model in STEP, STP, IGES, or X_T format and a 2D PDF drawing identifying material, thickness, critical dimensions, tolerances, bend directions, hardware, welds, cosmetic zones, finish, grain direction, and inspection requirements. Include quantities, target date, and any required quality documentation.