The application of DfMA creates continuity between design intent and execution, coordinating form, components, materials, technologies and processes.

Every project takes shape twice: first in the vision that defines its character, and then in the system that makes it buildable.

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Pininfarina brings these two moments closer through a design approach informed by production technologies, assembly methods and supply chain capabilities.

Design informed by production

DfMA introduces early knowledge of how parts and systems will be manufactured, transported, connected and assembled into the design process.

As form, materials and components are defined, the designer also considers the technologies required, potential suppliers, transportable dimensions, assembly operations and tolerances to be controlled. Execution constraints become design parameters, evaluated while the project still has room to evolve.

From automotive to architecture

Pininfarina’s automotive heritage includes a culture of precision based on component integration, engineering, industrial processes and interface control. This know-how can be transferred to other fields, adapting it to their specific characteristics.

In architecture, where every building presents different conditions and supply chains, DfMA supports the development of façades, envelopes and complex systems by considering from the beginning how they can be manufactured, handled and installed. Formal quality is supported by a deeper awareness of how it will be executed.

From design intent to assembly

  • 01 — Designing with the production process
  • 02 — Organizing components and interfaces
  • 03 — Integrating logistics and assembly
  • 04 — Verifying the system

01 — Designing with the production process

Materials and manufacturing technologies enter the process from the earliest stages. Geometries and performance are evaluated against fabrication methods, equipment, achievable dimensions and available supply chain expertise.

This assessment helps identify processes and suppliers that are consistent with the project and supports material optimization, reducing component weight where possible without compromising performance.

02 — Organizing components and interfaces

DfMA helps reduce the number of parts and, where possible, concentrate multiple functions into a single macro-component. Fewer elements and connections can simplify assembly and limit potential error points.

Component families, modules and kits of parts organize the system through shared rules. Tolerances, joints and anchoring systems are designed together with the elements they connect, improving precision and continuity in the final result.

03 — Integrating logistics and assembly

Dimensions, weight and ease of handling affect packaging, transport, delivery and on-site movement. Logistics therefore becomes part of the project, together with the sequence in which components will be positioned and connected.

Prefabrication, preassembly and dry assembly can move selected activities into controlled environments. This reduces unexpected work, adjustments and errors during installation.

04 — Verifying the system

Digital models, prototypes and simulations make it possible to verify geometries, strength, material use, connection accessibility and assembly sequences before execution.

Parametric tools support the analysis of variants and families of elements. DfMA defines the approach, while the parametric model helps control its design consequences.

When included in the project scope, verification can also address maintenance and end of life, facilitating replacement, disassembly and material separation.

DfMA in automotive

In vehicle development, surfaces, components, package and major assemblies must evolve together with the design. DfMA principles help assess feasibility, technologies and interfaces while preserving the original design intent.

Reducing parts and integrating functions can simplify assembly. Modularity and shared components can also support the development of different variants from a common base, preserving the identity of the product and the brand.

DfMA in architecture

In architecture, the approach applies to façade systems, prefabricated components and elements characterized by complex geometries.

Families of panels, anchors and connections help control variety and turn articulated forms into systems that can be manufactured, transported and assembled. Early coordination between design, specialists and manufacturers reduces discontinuities between project, fabrication and construction site.

Standardization and customization

A common base of components, interfaces and processes can support different configurations. Geometries, dimensions, textures and finishes introduce variation within a production-consistent system.

Customization is built through precise rules, maintaining design identity, quality control and process repeatability.

Applied research and advanced fabrication

Pininfarina develops its approach to DfMA through research, training and experimentation. Research on façade components explores the integration of materials, anchoring systems and advanced fabrication technologies, including additive manufacturing.

The research studies how to integrate multiple functions, reduce parts and interfaces, and lighten components, simplifying production, transport and installation. Its outcomes contribute to shared knowledge across design, engineering and architecture.