Turn your ideas into reality with precision sheet metal fabrication. Whether you need prototypes, functional components, custom enclosures, or production parts, we provide a wide range of sheet metal fabrication processes and materials to meet your project’s specific requirements.
Sheet metal fabrication is a manufacturing process that transforms flat metal sheets into functional parts and assemblies through cutting, forming, bending, joining, and finishing. Using processes such as laser cutting, punching, press braking, and welding, sheet metal can be formed into precise and durable components for a wide range of industrial and commercial applications.
Sheet metal fabrication can produce custom enclosures, housings, cabinets, and covers.
Sheet metal fabrication can produce brackets, mounting plates, and support components.
Sheet metal can be bent into a wide range of angles and profiles.
Sheet metal fabrication can produce large panels, covers, frames, and structural components.
Sheet metal parts can be joined through welding, riveting, or other fastening methods.
Sheet metal fabrication can produce high-precision parts with accurate dimensions.
Once customers upload their designs to our quoting system and place an order, we follow these steps:
Using CAD and manufacturing software, we review the customer’s design to identify potential fabrication issues and confirm manufacturability.
The sheet metal is cut to the required shape using processes such as laser cutting or CNC punching.
The cut sheet is bent or formed to achieve the required angles, dimensions, and three-dimensional geometry.
Individual sheet metal components can be welded, riveted, or fastened together, followed by finishing processes such as deburring, painting, or polishing.
We inspect the finished parts for dimensional accuracy, forming quality, surface condition, and visible defects before packing and shipping.
Laser cutting uses a focused laser beam to cut sheet metal into precise shapes and profiles. It can create clean edges, detailed contours, holes, and slots with high accuracy. Laser cutting is suitable for prototypes and production parts with flat or two-dimensional geometries.
Metal bending uses a press brake to form sheet metal into precise angles and three-dimensional shapes. It can produce brackets, housings, panels, and other formed components with consistent dimensions. Different bending methods and tooling can be selected according to the material and part geometry.
Welding joins two or more metal components to create a strong and permanent assembly. Common welding methods include TIG, MIG, and spot welding, which can be selected based on the material, thickness, and application. Welding is suitable for structural parts, enclosures, frames, and complex assemblies.
Waterjet cutting uses a high-pressure stream of water, often mixed with abrasive particles, to cut sheet metal without generating a heat-affected zone. It can process a wide range of metals and produce complex contours, sharp corners, and intricate profiles. Waterjet cutting is suitable for materials and applications where heat-affected areas need to be minimized.
Tube laser cutting uses a laser to cut, drill, and process metal tubes and pipes with high precision. It can create holes, slots, notches, and complex profiles on round, square, and rectangular tubing. Tube laser cutting is ideal for frames, supports, structural components, and tubular assemblies.
Custom enclosure fabrication combines cutting, bending, joining, and finishing processes to produce metal housings for electronic and mechanical components. Enclosures can be manufactured with customized dimensions, openings, mounting features, and finishing options to meet specific application requirements.
Different sheet metal materials are compatible with processes such as laser cutting, bending, welding, waterjet cutting, tube laser cutting, and custom enclosure fabrication. Material properties can affect bendability, weldability, cutting performance, and dimensional stability, so selecting the right grade helps achieve consistent quality across different part geometries.
Sheet metal fabrication supports a broad selection of metal materials, including aluminum, stainless steel, carbon steel, copper, brass, and coated steel. Different grades offer varying levels of strength, corrosion resistance, conductivity, formability, and durability, making it easier to select a material that matches specific part requirements and operating conditions.
Different sheet metal materials are compatible with processes such as laser cutting, bending, welding, waterjet cutting, tube laser cutting, and custom enclosure fabrication. Material properties can affect bendability, weldability, cutting performance, and dimensional stability, so selecting the right grade helps achieve consistent quality across different part geometries.
Sheet metal materials can be selected based on the performance requirements of the finished part. Lightweight aluminum can help reduce overall weight, stainless steel provides strong corrosion resistance, while copper and brass offer excellent electrical conductivity. Carbon steel provides high strength and durability for demanding structural and mechanical components.
Sheet metal fabrication materials are suitable for a wide range of applications, including industrial equipment, machine components, electronic enclosures, electrical assemblies, automotive parts, brackets, panels, frames, and structural components. With multiple material options and fabrication processes available, sheet metal can support both functional prototypes and production-ready components.
Sheet metal fabrication is well suited for thin-walled parts, panels, brackets, enclosures, and components made from sheet stock. It can be more economical when the part geometry relies mainly on cutting and bending.
CNC machining is better suited for solid blocks, complex 3D geometry, tight tolerances, and features that cannot be produced efficiently from sheet metal.
Sheet metal fabrication is generally more suitable for durable metal panels, brackets, enclosures, and folded structures that use standard sheet thicknesses. It can also offer faster production and lower costs for many conventional thin-walled metal parts.
3D printing provides greater geometric freedom and can produce complex internal structures, lattice features, and shapes that are difficult to fabricate from flat sheet metal.
Sheet metal fabrication is suitable for metal parts, prototypes, enclosures, and low-to-medium volume production without the need for dedicated injection molds. For metal components, sheet metal fabrication is often the more direct manufacturing method.
Injection molding is primarily used for high-volume plastic production and can achieve low per-part costs once tooling has been created.
Sheet metal fabrication starts with flat metal stock and forms it into the required shape through cutting, bending, and joining. It is often preferable for lightweight structures, panels, enclosures, and parts with relatively uniform wall thickness.
Metal casting pours molten metal into a mold and is better suited for thick, bulky, or highly three-dimensional components.
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