The Hidden ROI of a Connected Electronics Design Platform

A single board respin can cost upward of $50,000. A missed product launch window can cost significantly more. Yet when engineering leaders evaluate their design software, most measure ROI by a single number: the license fee on the purchase order. The true return cannot be calculated by a simple glance at a line-item budget. 

The cost of the design software they use, and perhaps the integrations they are missing or misusing, only accounts for the initial investment. What they must consider are the myriad operational and cost reduction benefits to follow their initial payout.

The true cost of a hardware development platform cannot be measured if it simply syncs with their existing workflow, but instead how it highlights the gaps in workflows, the effects on company performance, and the significant cost aversions.

Key Takeaways

• Poor connection among engineers creates distance between designers and efficiency. A standalone design platform for a mechanical engineer (ME) or electrical engineer (EE) that cannot cross-communicate with other platforms leaves many efficiency gaps uncovered. Streamlining a workflow must factor all stakeholders and scenarios into the equation for maximum gain.
• Connected electronics design can solve issues of the past, present, and future. By connecting teams more effectively, data sharing can uncover ongoing design problems that continue to be fixed in the present, and avoid these kinds of continued mistakes in the future.
• The value of a connected electronics design platform is within reach for growing organizations managing distributed teams and increasingly complex programs. With Altium Agile Teams, designers, procurement, and manufacturers can share insight through a single platform that communicates their changes as they occur. 

Past: Reclaim Lost Hours

Whether it means shortening project timelines or minimizing administrative tasks in order to save time, engineers find that they are in need of ways to identify and eliminate inefficiencies. It is a fundamental principle of any lean operation.

What they may not understand is the influence that each team has or the insight that can be gained from the convergence of datasets. The scale of this problem is well-documented. According to Bain & Company's 2023 Engineering and R&D Report, aerospace and defense engineers spend only about half their time on active engineering work, of which more than 30% is spent on rework and more than 40% on lower-value administrative tasks. Meanwhile, research tracking engineering organizations more broadly finds that engineers report losing on average 22% of their working time to non-productive activity – a figure that, at typical fully-loaded engineering salaries, translates into hundreds of thousands of dollars of unrealized productivity per team annually.

For instance, when electrical engineers (EEs) work in two dimensions while mechanical engineers (MEs) layout in three dimensions, they are essentially creating two designs that must be combined later. Aside from this one-off surgical procedure of amalgamating layouts, discrepancies in design, parts sourcing, and placement must be updated in two separate locations.

Those able to incorporate both electrical and mechanical data into a complete 3D model can soon begin to recognize the potential time sinks, which are largely one of the following:

• Downloading and Sharing Files: Interdepartmental file sharing is one of the most significant, non-value-added consumptions of project hours. Connected electronics design platforms eliminate manual exports entirely. Research from workplace collaboration studies finds that 64% of employees waste at least three hours a week due to collaboration inefficiencies, with 20% losing up to six hours (and that is before accounting for the context-switching cost of toggling between disconnected tools).
• Communicating Discrepancies: Instead of chasing alignment via screenshots, MEs can provide real-time 3D enclosures. EEs can immediately recognize component misalignments, manage structural clearance, and keep workflows moving. 3D layouts are translated directly into 2D schematics.
• Overworking Designs: Much of an engineer's time is lost creating replica designs. Teams that leverage a centralized platform to reuse common, pre-verified assemblies and layouts find that a massive portion of their work is securely embedded in previous projects.
• Preparing for Audit: When compliance audits arise, compiling a paper trail historically has become a disruptive corporate event. A connected platform automates documentation, instantly pulling together compliance insights for RoHS, REACH, or strict industry-specific report standards, such as medical or aerospace certifications.

Present: Reduce Risks and Costs

Avoiding just a single board respin can completely cover the cost of your design software license. While the efficiency gains mentioned above are compelling, the immediate financial payload of connected tools lies in proactive efforts to reduce risk.

Those who strive to eliminate reworks see tremendous reductions in one-off costs. However, the issue is not altering a design, but spotting discrepancies in the early stages. The financial stakes are substantial: according to an Accuris survey of 439 industry professionals across aerospace, automotive, electronics, and medical device development, 85% of respondents face rework costs of up to $250,000 per project, 51% experience design changes after the design freeze – the most expensive point at which to make them – and 46% estimate each post-freeze change costs $50,000 or more. A separate 2023 IEEE study found that prototyping and rework alone consume an average of 43% of hardware project budgets.

A component mismatched to the mechanical layout may not be so expensive if recognized during 3D modelling. But if left unchecked due to delays exacerbated by manual file sharing and poorly communicated changes, this cost may evolve into manufacturing delays or, even worse, disposal of incorrect products at the quality assurance phase. With a platform like Altium Agile Teams, verification and QA become natively embedded into the daily development workflow.

Future: Inform Strategic Growth Initiatives

Operational efficiency is not just about saving money in production, but driving market velocity and building a scalable business model. The pressure to move faster is already intense. According to Protolabs' Product Development Trends in 2024, a survey of more than 700 engineers and designers across industries, 82% of product developers are constantly looking for ways to speed up development, and 65% cite competitive pressure as the primary force demanding faster time-to-market. More than half say they are already developing products faster than ever, yet still feel behind.

To keep up with modern market demands without sacrificing product quality or turning to unauthorized brokers, design teams must streamline their timelines through data visibility.

Compressing Time-to-Market (TTM)

To hit narrow market windows ahead of competitors, design cycles must shrink. A connected platform provides the historical data analytics needed to pinpoint which stages of development experience the most friction, allowing teams to continuously optimize their velocity. The global Electronic Design Automation market is projected to grow from $14.55 billion in 2025 to $34.71 billion by 2035 – a clear signal that investment in connected design infrastructure is accelerating across the industry, not contracting.

Scalable Workflows

Revamped workflows and modern software initiatives must be built to scale. Centralized platforms ensure that as a team grows from 5 engineers to 50, the onboarding, collaboration, and data management frameworks remain standardized.

Securing Knowledge and IP Protection

When design history and engineering decisions live only in an individual's head or local drive, the company faces severe risk if that person leaves. Centralizing data into a secure, cloud-based platform transforms isolated tribal knowledge into a protected corporate asset that can be safely leveraged for future product generations. This risk is compounded by talent instability. Bain & Company reports that approximately 40% of young engineering professionals globally say they are likely to change jobs within the next six months, making knowledge retention a strategic, not just an operational, priority.

The Real Formula for Engineering ROI

Engineers and managers can no longer afford to think of design software as a basic line-item expense. When evaluating intuitive, cloud-based solutions, the return is found in reduced project overhead, minimized rework, and accelerated development.

Adopting a connected electronics design platform replaces recurring, manual corrections with long-term organizational multipliers. It allows teams to shift focus away from administrative friction and toward strategic innovations like configuring advanced schematics or mastering proactive procurement.

Ultimately, the ROI of a connected platform is realized when you uncover and eliminate the hidden costs of outdated processes. With Altium Agile Teams, designers, procurement, and manufacturers gain the clarity they need to drive true cost-efficiency across the entire project lifecycle.

Learn more about Altium Agile Teams →

Frequently Asked Questions

Who needs a connected engineering platform?

Any hardware development team experiencing friction as a result of silos can benefit from a connected engineering platform. This includes cross-functional teams where electrical and mechanical engineers, procurement, and manufacturers experience continued problems with manual file handoffs, version control confusion, late-stage design reworks, or compliance.

What is the ROI of engineering software?

True ROI goes far beyond the initial license fee. It is measured as the total cost averted by eliminating manual data entry and reducing engineering hours spent on administrative tasks. Preventing a single physical board respin or manufacturing delay can cover the cost of the software investment. Research shows that 85% of hardware teams face rework costs up to $250,000 per project, making early-stage risk reduction one of the highest-leverage investments an engineering organization can make.

How does a connected workflow help engineers support manufacturing and procurement teams?

A connected workflow replaces static, outdated Bills of Materials (BOMs) with real-time transparency. Procurement can monitor component availability and obsolescence risks directly within the design space before ordering, while manufacturing partners gain instant, secure access to the information they need. According to Protolabs' 2024 product development survey, tight deadlines and the pressure to accelerate time-to-market will play a major role in meeting development goals for more than 60% of product teams over the next five years, making supply chain visibility embedded in the design workflow a competitive necessity, not a convenience.