What is Digital Transformation in PCB Design?

Zachariah Peterson
|  Created: June 10, 2022  |  Updated: October 15, 2026
At a Glance

Innovative companies are embracing digital transformation at the enterprise level.

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Digital transformation electronics

Innovative companies know how fast the technology landscape evolves, as well as the difficulties faced in staying competitive in a rapidly changing market. The electronics industry is hyper-competitive compared to many other industries, with product lifecycles and time-to-market for new products steadily decreasing. Even as companies have become more competitive and accelerated their development schedules, new supply chain and logistics challenges have emerged that work to derail go-to-market strategies. Whether geopolitical factors, black swan events like a global pandemic, or a garden-variety parts shortage, companies have to manage all aspects of a product beyond just the design data.

To confront these challenges and keep development schedules on course, companies have historically looked to automation and collaboration tools to keep their teams efficient. However, at some point automation stops being so effective, and product managers need something more important: visibility into and control over the development workflow across an organization. Both depend on a connected platform rather than a collection of disconnected tools. Today, digital transformation is part of the competitive strategy that enables these capabilities. But what exactly is digital transformation, and what does it look like for electronics companies and PCB design teams?

Key Takeaways

  • Digital transformation in PCB design means connecting ECAD data, workflows, and business systems on one platform instead of managing them in separate tools.
  • PLM alone does not reach ECAD users in their design software, so engineering context is often lost at the handoff.
  • Altium Agile Enterprise extends the Altium platform with intelligence, governance, scalability, and extensibility, preserving context from intent through release.

Digital Transformation Defined

At a conceptual level, digital transformation refers to implementation of a set of software systems that unifies workflows, inventories, and data within a centralized platform. In addition to consolidating all these aspects of product development into one location, platforms enabling digital transformation act as an administrative tool to enable access to product data for all stakeholders.

Digital transformation can be implemented on-premises or in the cloud, both of which are a natural step for electronics development teams, which are cross-functional and often distributed. Cloud platforms take digital transformation a step further by giving any stakeholder access to product data from anywhere. A flexible workflow management platform (on-premises or cloud deployment) is also a natural place to aggregate and manage data from other enterprise platforms, such as:

  • Inventory management
  • Data warehousing and version control systems
  • Project or workflow management
  • Collaborative development platforms
  • 3rd party supply chain data services
  • PLM and requirements management systems

At a practical level, a digital transformation strategy can be very unique for different companies within the same industry. Of all the new technologies and trends that get assigned a compelling buzzword, digital transformation is the most difficult to define because every company faces different challenges. As a company grows and its product management scope grows, a type of digital transformation is typically implemented with a PLM system that tries to apply a universal tool set to every industry. Some PLM vendors have specialized their platforms to address common pain points in specific industries, and yet they continue to miss critical elements that drive successful digital transformation.

ECAD users and engineers need to interact with all other team members involved in product development, but they need more than a PLM system to do it. Digital transformation is the key to providing unification that integrates ECAD beyond the typical PLM implementation. Successful digital transformation for electronics and PCB design reaches into the design software to enable a new type of digitally-enabled efficiency and collaboration. This is the gap a connected platform closes: ECAD data, workflows, and approvals stay linked to PLM and other business systems, so engineering context is not lost at the handoff.

What Digital Transformation Means For ECAD Users

Multifunctional teams know that the lines between ECAD, MCAD, manufacturing, application development, and procurement blur every year as teams become progressively more multifunctional. PLM systems have done a decent job unifying just about every area of product development except for ECAD users.

For ECAD users on product development teams, systems enabling digital transformation and enterprise-wide workflows can reach PCB designers directly through their design software. With a specialized workflow management platform that integrates with a PLM system, ECAD users can access MCAD, simulation, application, manufacturing, and supply chain data through a single platform and can be active participants in cross-domain product development. Altium Agile Enterprise delivers this through connecting engineers to a governed workspace and to the PLM system the business already uses.

Digital transformation
Digital transformation drives unification across the design and development process with integration between multiple platforms.

This link between ECAD users and all other design domains involved in product development enables instant file and model exchanges in design tools, simplified data management and revision tracking, simplified releases to manufacturing, and access to past projects. For team leaders and project managers, workflows become unified and can be applied across functional domains. Reaching ECAD users directly in their design software is the easiest way to bring PCB design data into enterprise-wide product development workflows. The result is a connected digital thread: design data, BOMs, workflows, approvals, and release readiness stay linked from intent through release, with the platform acting as both a system of record and a system of action.

Bringing PCB Design Into the Digital Age

Of all the transformative industries that make modern life possible, the electronics industry tends to lag other industries in terms of digital transformation, both at the design and manufacturing level. However, companies have an opportunity to fully integrate their lifecycle, design, and production activities into a single management platform, realizing true digital transformation.

The best platforms for electronics companies offer a multi-functional collaborative environment with full control over design and production workflow:

  • Connected multi-domain workflows: The standard PCB design workflow does not always include mechanical design, application development, documentation, and release to manufacturing. Connected platforms should provide visibility of all product data, not just the PCB design files, to create a truly connected environment.
  • Customizable workflow creation: Different projects and products may proceed along different workflows and schedules, depending on stakeholders involved and the development tasks required. Unified management systems should offer total control over development workflows across design domains, starting from initial concept and ending in release to production. Altium Agile Enterprise can be extended to match organization-specific workflows, rules, and integrations.
  • Comprehensive visibility: Go-to-market strategies begin when the design cycle begins. Total visibility into development progress, spanning all portions of a product’s data, helps designers catch errors before they create additional costs and delays that delay release of a product to market. Governance, traceability, and audit-ready records extend that visibility to release and compliance evidence.

These solutions help companies catch mistakes early, manage changes throughout projects, minimize redesigns, and track a product from manufacturing to market. Rather than using a PLM system that doesn’t integrate with design and development tools, look to a platform that integrates your team across design, development, and production domains.

How Altium Agile Enterprise Supports Digital Transformation

Altium Agile Enterprise is an intelligent, governed, and extensible platform for electronics development at scale. It builds on the connected foundation of the Altium platform in these ways:

  • Connected context: Engineering data, workflows, systems, and decisions stay linked from intent through release.
  • Intelligence: The platform analyzes engineering context, risk, tradeoffs, and workflow state to help guide better decisions.
  • Governance and security: Permissions, auditability, and compliance evidence support controlled, traceable release execution.
  • Scalability: The same platform scales across teams, programs, sites, product lines, suppliers, and release cycles.
  • Extensibility: Enterprise-specific workflows, rules, and integrations, including publishing to your PLM system, extend the platform to fit how your organization operates.

Electronics companies that want to streamline their product development, management, and workflows across all stakeholders need a comprehensive, integrated solution linking design data with workflows and supply chain information. Now you can use Altium Agile Enterprise to manage your team of electronics designers, develop custom workflows, publish to your enterprise PLM system, and much more. It connects engineering data, workflows, approvals, sourcing intelligence, and release readiness into a continuous digital thread, so your organization can manage complexity at scale. Begin your journey towards digital transformation today with Altium.

About Author

About Author

Zachariah Peterson has an extensive technical background in academia and industry. He currently provides research, design, and marketing services to companies in the electronics industry. Prior to working in the PCB industry, he taught at Portland State University and conducted research on random laser theory, materials, and stability. His background in scientific research spans topics in nanoparticle lasers, electronic and optoelectronic semiconductor devices, environmental sensors, and stochastics. His work has been published in over a dozen peer-reviewed journals and conference proceedings, and he has written 2500+ technical articles on PCB design for a number of companies. He is a member of IEEE Photonics Society, IEEE Electronics Packaging Society, American Physical Society, and the Printed Circuit Engineering Association (PCEA). He previously served as a voting member on the INCITS Quantum Computing Technical Advisory Committee working on technical standards for quantum electronics, and he currently serves on the IEEE P3186 Working Group focused on Port Interface Representing Photonic Signals Using SPICE-class Circuit Simulators.

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