Free cookie consent management tool by TermsFeed Policy Generator

Nearshoring Electronics Development: Why European Manufacturers Are Moving Development Closer to Home

For two decades, the default answer to "where do we develop and build our electronics?" was simple: wherever it is cheapest. That answer has stopped working for many European manufacturers. Long and unpredictable lead times, tariff risks, rising compliance requirements and the cost of slow iteration loops have changed the calculation.

 

This article explains what nearshoring electronics development really means, which technical and commercial factors drive the shift, where the hidden costs of far-away development lie, and how to choose a European electronics development partner that can take a product from concept to series production.

 

For two decades, the default answer to "where do we develop and build our electronics?" was simple: wherever it is cheapest. That answer has stopped working for many European manufacturers. Long and unpredictable lead times, tariff risks, rising compliance requirements and the cost of slow iteration loops have changed the calculation.

This article explains what nearshoring electronics development really means, which technical and commercial factors drive the shift, where the hidden costs of far-away development lie, and how to choose a European electronics development partner that can take a product from concept to series production.

Nearshoring, reshoring, friendshoring, rightshoring: what is the difference?

The terms are often mixed up. For electronics development, the distinctions matter because each model has different consequences for communication, IP protection and compliance.

ModelMeaningTypical motivationMain trade-off
OffshoringDevelopment or production in a distant low-cost countryLower hourly rates and unit costsLong iteration loops, time zones, IP and logistics risk
ReshoringBringing work back to the home countryControl, quality, short distancesCapacity and skills must be available locally
NearshoringMoving work to a nearby country or region, e.g. within EuropeSame time zone, short transport, shared standardsPartner selection becomes decisive
FriendshoringSourcing from politically and economically aligned countriesLower geopolitical and tariff riskSmaller supplier base
RightshoringDeciding per product and per process step where it fits bestBalance of cost, risk and speedRequires a clear decision framework

 

In practice, most companies end up with rightshoring: development, prototyping and critical production steps move close to home, while selected standard parts continue to be sourced globally.

Why the shift is happening now

The trend is not only anecdotal. In its report "The Resurgence of Manufacturing: Reindustrialization strategies in Europe and the US" (March 2025, survey of 1,401 executives at companies with more than USD 1 billion revenue), the Capgemini Research Institute found that 56% of organisations had invested in nearshoring or a combination of reshoring and nearshoring in the past year, up from 42% in 2024. 73% see friendshoring as a key route forward for sourcing and production, and 95% named supply chain pressure as a driver of their reindustrialisation strategy.

In June 2025, the European Investment Bank and the European Commission reported in "Shock Waves from Turbulent Times" that EU importers are actively recalibrating their supply chains: diversifying suppliers, adding sourcing countries and investing in digital tracking.

For electronics in particular, five drivers stand out:

  1. Lead time and logistics risk. Disrupted shipping routes and congested ports turn a planned prototype loop into weeks of waiting. Every hardware revision that has to cross continents multiplies this delay.
  2. Tariffs and trade policy. Changing tariffs make landed costs hard to plan, especially for products with long lifecycles.
  3. Regulation. CE marking, the EMC Directive, the Low Voltage Directive, RoHS and REACH have always required documented evidence. The EU Cyber Resilience Act adds cybersecurity obligations for products with digital elements: reporting obligations apply from 11 September 2026 and the main requirements from 11 December 2027. Development partners who work with these rules daily reduce the risk of late redesigns.
  4. Component availability and lifecycle. Industrial products are often built for 10 years or longer. Designing with European distribution and long-term availability in mind avoids forced redesigns later.
  5. Speed of iteration. In development, the real cost driver is rarely the hourly rate. It is the number and duration of loops between specification, design, prototype and test.

The hidden costs of far-away development

A low quoted rate can be misleading. The true cost of a development project is decided by what happens between the quotes. Typical hidden cost items are:

  • Communication overhead: asynchronous communication across time zones turns a 15-minute clarification into a 24-hour round trip. Over a project with hundreds of design decisions, this adds weeks.
  • Specification gaps: language barriers and different engineering cultures increase the risk that requirements are interpreted differently. The gap often only shows up at the first prototype.
  • Prototype logistics: shipping boards back and forth for debugging, customs clearance and the lack of a shared lab bench slow down root-cause analysis.
  • Late compliance findings: if EMC pre-compliance testing is not part of the development process, failures appear in the accredited lab, when changes are most expensive.
  • Hand-over losses: when design house, layout service and contract manufacturer are separate companies, knowledge is lost at every interface. Design-for-manufacturing and design-for-test issues surface at the start of series production.
  • IP and documentation risk: unclear ownership of schematics, layout data and source code, or incomplete documentation, can make you dependent on a supplier you cannot easily reach.

Our article on what electronic prototype development really costs looks at these cost drivers in more detail.

What nearshoring changes technically

Shorter design-build-test loops

When engineers, layout and prototype assembly are in the same region, a hardware revision can move from schematic change to assembled board much faster. Debugging can happen on the same bench, with the customer's engineers present if needed. Each saved week per loop compounds over A-, B- and C-samples.

Compliance built into the design

A European partner designs for the target market from the start: creepage and clearance distances, EMC-oriented layout (stack-up, grounding, filtering, shielding), pre-compliance measurements before the formal test, and the technical documentation needed for the EU declaration of conformity. For connected products, secure-by-design principles, update concepts and vulnerability handling should now be part of the architecture because of the Cyber Resilience Act.

Supply-chain-aware component selection

Component choice is a long-term decision. Good practice includes checking lifecycle status, preferring parts with second sources, verifying availability through European distribution and documenting approved alternatives in the bill of materials. This reduces the risk of allocation problems and forced redesigns during the product lifecycle.

Design for manufacturing and test

If the team that develops the product also knows how it will be produced, test points, programming interfaces, panelisation and end-of-line test concepts are part of the design and not added afterwards. This is where a seamless transition from prototype to series production is won or lost.

When nearshoring makes sense, and when it does not

SituationNearshoring is a strong fitDistant locations may still work
Product complexityComplex systems, embedded hardware and software, safety or medical relevanceSimple, fully specified commodity boards
VolumeSmall and medium series, many variantsVery high volumes with stable design
LifecycleLong lifecycle, service and spare parts over many yearsShort-lived consumer products
Requirements maturityRequirements still evolving, close collaboration neededFrozen specification with little change expected
RegulationCE, EMC, CRA, medical or industrial standards criticalLow regulatory exposure

 

The decision is rarely all-or-nothing. A common model is to keep requirements engineering, architecture, hardware and firmware development, prototyping and pilot series close to home, and to decide per component and per process step where series parts are sourced.

Checklist: how to choose a European electronics development partner

Use these questions when you compare development partners:

  1. Can the partner cover the full chain, from requirements and concept through hardware, firmware and software to prototypes, pilot series and series production?
  2. Which quality management system is in place (for example ISO 9001), and how are design reviews and changes documented?
  3. How is EMC addressed during development: layout guidelines, pre-compliance measurements, support during accredited testing?
  4. How are components selected regarding lifecycle, second sources and availability?
  5. Who owns schematics, layout data and source code at the end of the project, and in which formats are they delivered?
  6. How are project phases, deliverables and decision gates defined, and how transparent is progress reporting?
  7. Can the partner take over and document an existing product that was developed elsewhere?
  8. Are there reference projects in your industry and with comparable requirements?

How T&O Electronic Solutions supports nearshored development

T&O Electronic Solutions has developed and built electronic systems since 1990, for more than 800 customers in industrial and medical technology. With our electronics development services, development, prototyping and series production stay with one partner, close to your team:

  • Sites in Hausham (Germany) and Ramsen (Switzerland): same time zone, short travel distances and direct communication with the engineers who work on your product.
  • End-to-end development: requirements, concept, hardware design, firmware and software, prototypes, pilot series and series transfer.
  • Compliance in mind from the start: design for the requirements of the European market, including EMC and documentation.
  • Taking over existing products: analysis, documentation and redesign of systems that were developed elsewhere or need new components.
  • Quality management certified to ISO 9001.

Frequently asked questions

What is nearshoring in electronics development?

Nearshoring means moving development and, where useful, production to a partner in a nearby country or region, for European companies usually within Europe. The goal is shorter communication paths, faster iteration loops, lower logistics risk and easier compliance with European regulation.

Is nearshoring more expensive than offshoring?

Hourly rates are usually higher than in low-cost countries. The total project cost depends much more on the number of iteration loops, late changes, compliance failures and hand-over losses. In many projects these factors outweigh the rate difference. A realistic comparison looks at total cost and time to market, not only the quoted rate.

Can we nearshore development but keep series production where it is?

Yes. Many companies start by moving development and prototyping. It is important that the design is documented and prepared for manufacturing and test, so that it can be transferred to any qualified manufacturer.

How does the Cyber Resilience Act affect our choice of development partner?

Products with digital elements placed on the EU market must meet cybersecurity requirements: reporting obligations apply from 11 September 2026 and the main requirements from 11 December 2027. A partner familiar with these requirements can build security, update concepts and documentation into the architecture instead of adding them at the end.

How long does it take to move an existing product to a new development partner?

It depends on the quality of the existing documentation. If schematics, layout data and source code are complete, the transfer can be quick. If not, an analysis and documentation phase comes first. A defined concept phase gives you a reliable basis for planning.

Who owns the design when we work with a development partner?

Ownership of schematics, layout data and source code is defined in the development contract. Clarify this before the project starts, and make sure you receive the data in editable formats.

Can a nearshore partner also support small series?

Yes. Small and medium series with many variants are exactly where short distances and close collaboration have the biggest effect.

Bring your development closer to home

Are you planning a new product, struggling with slow iteration loops, or looking for a partner to take over an existing design? Our engineers will help you assess the options. In a free initial consultation, we discuss your requirements, risks and the fastest route to series production.

Would you like to receive a free callback?