Metal carpentry comprises the processes used to transform sheet metal, tubes, and metal profiles into structural components or elements for various manufacturing sectors. Advanced technologies and precision machining allow us to create durable structures, industrial components, and customized solutions for numerous applications.

In modern carpentry, every stage of the production process contributes to the quality of the final result. From metal cutting and bending to welding and surface finishing, each process requires specific technical skills and machinery.

Metal fabrication companies use integrated processes to ensure precision, quality, and reliability in their structures.

The term metal carpentry refers to all the techniques used to design and create metal structures and components starting from materials such as steel, iron and stainless steel.

These processes find application in numerous production fields, including:

• manufacturing industry
• urban infrastructure
• street furniture
• architecture and design
• production of custom metal components 

Modern carpentry allows for the creation of elements with specific characteristics of strength, size, and functionality. Metal structures can be designed based on project requirements and subsequently produced through various technical processes.

Further information on the service is available on the page dedicated to metal carpentry in Turin.

Cutting is often the first step in metalworking. This process allows for precise-sized components to be obtained from sheet metal or metal profiles.

Thanks to modern technologies, metal cutting can be performed with very high levels of precision, reducing waste and ensuring efficient processing.

Laser cutting on sheet metal and profiles

Among the most widely used technologies in metalworking is laser cutting , a process that uses a high-energy beam of light to separate metal with great precision.

Laser cutting allows you to create:

• complex shapes
• components with reduced tolerances
• clean cutting edges
• repeatable large-scale processes

This technology is particularly used in the production of metal components intended for subsequent processing such as bending or welding.

In many cases, cutting is performed directly on metal sheets that will form the components of the final structure.

After cutting, metal components often need to be shaped to achieve the desired design. This process is accomplished using controlled metal deformation techniques.

Forming processes allow flat sheet metal to be transformed into three-dimensional elements used for metal structures, industrial components, or architectural elements.

Sheet metal bending

Sheet metal bending allows you to create precise angles and geometries using press brakes. During this process, the sheet metal is deformed without compromising the material's strength.

This process is widely used in the production of:

• metal structures
• industrial components
• elements for street furniture
• Machinery parts

Sheet metal calendering

Another fundamental process is sheet metal calendering , used to obtain curved or cylindrical surfaces.

The sheet metal is progressively deformed using calendering rollers until it reaches the desired curvature radius. This technique is often used to create curved metal structures or design elements.

Welding is the process that allows different metal components to be joined together, creating a single, resistant structure.

In the metal carpentry sector, various welding techniques are used, each suited to specific production needs.

MIG, TIG and robotic welding

The most popular techniques include:

• MIG/MAG welding, used for production and structural processes
• TIG welding, ideal for precision machining and stainless steel
• robotic welding, used for repetitive and controlled production

These processes allow for the creation of highly resistant and long-lasting joints, which are essential for the creation of reliable metal structures.

To learn more about welding technologies: CLICK HERE

After structural processing, metal components can be subjected to various surface finishes to improve aesthetics, strength, and durability over time.

These processes are particularly important for products intended for outdoor environments or architectural contexts.

Stainless steel polishing

Polishing stainless steel produces uniform, smooth, and corrosion-resistant surfaces. This treatment is often used for components intended for architectural or industrial applications.

Powder coating

Powder coating is one of the most widely used techniques for protecting metals from atmospheric agents and improving the aesthetic appearance of products.

This treatment guarantees:

• high wear resistance
• corrosion protection
• wide choice of colors and finishes

One of the main advantages of metal carpentry is the possibility of creating completely customized structures.

By combining different processes—from laser cutting to bending, welding, and finishing—it is possible to create components designed for specific needs.

Specialized carpentry shops can produce:

• metal structures for various industrial sectors
• metal components for machinery
• architectural elements and urban structures
• metalworking on project

An example of custom production is illustrated on the page dedicated to custom metal constructions.

Metal.Car.'s experience in metal carpentry

Metalwork processes require technical expertise, advanced machinery, and precise management of all production phases. From laser cutting of sheet metal , to bending and forming , to welding and surface finishing , each process contributes to the quality and durability of the final product.

Specialized companies like Metal.Car. operate in the metalwork sector, offering complete processes for the transformation of steel, iron, and stainless steel. Thanks to modern technologies and consolidated experience in metalworking , it is possible to create metal components and structures designed to meet the needs of various industrial sectors and applications.

A deeper understanding of the production processes and technologies used in metalworking allows us to understand how the various metalworking processes can be integrated to create reliable, precise, and custom-made structures.