Additive manufacturing design differs from traditional design as it leverages the possibilities offered by 3D printing. This approach allows for the creation of complex, geometrically optimized, and customized components or products that may not be feasible with conventional production methods.

DFAM takes into account the constraints and opportunities offered by additive manufacturing, such as design freedom, reduction of assembled parts, structural weight reduction, integration of functions, and customization. Designing for additive manufacturing aims to maximize the benefits of this technology, including cost reduction, shortened development times, and the ability to create complex geometries.

During DFAM design, computer-aided design (CAD) tools are used to optimize the geometry and properties of the component based on specific requirements. This includes material reduction, removal of unnecessary parts, and optimization of functional features.

Additive manufacturing projects are widely used in various sectors such as the automotive industry, aerospace, prototype manufacturing, medicine, and many others, where additive manufacturing offers significant advantages over traditional production methods.