Industrial engineering services for complex manufacturing systems, delivered by EU nearshore teams trained on your Ways of Working.
We embed dedicated engineering teams into advanced manufacturing OEMs across Europe, supporting build, integration, service, and reliability operations inside the most complex manufacturing environments. These are coordinated industrial engineering services teams that take ownership of the work, not individuals assembled for a single task.
Our EU nearshore teams arrive pre-trained on your processes, your documentation standards, and your technical environment. That means advanced manufacturing engineering capacity that is ready to contribute from day one, not months into onboarding.
And it comes without the usual trade-off: Western European quality at roughly one-third of the local cost, fully compliant with EU GDPR and IP frameworks.
Nearshore cost saving
up to 40%
Mobilisation time
4-6 Weeks
Projects delivered
60+
EU offices
4
Most companies reach a point where engineering demand grows faster than internal capacity. Hiring locally can take months, while your existing engineers are already balancing product development, factory support, troubleshooting, and documentation. And even after you hire, traditional onboarding takes much longer and pulls in additional resources.
When every priority competes for the same people, something gives: projects slow down, documentation slips, and delivery risk climbs. A dedicated engineering team adds capacity without adding management complexity, so you keep momentum across engineering, manufacturing, and service operations. It’s the difference between absorbing a new workload and being buried by it.
This service exists for the situations teams know all too well:
Local hiring takes too long to match the timeline of the project in front of you.
Internal engineering teams are already overloaded and stretched thin.
Manufacturing and service documentation keeps getting pushed down the queue.
Factory support and troubleshooting pull your senior engineers away from priority work.
A project needs more engineering capacity, but not more layers of management to run it.
Every delay quietly compounds into delivery and cost risk.
We work with complex manufacturing OEMs developing new products and systems: semiconductors, aerospace and defense, medical devices, automotive and EV, industrial machinery, and chemical and materials production. These are companies that need engineering work delivered, not engineering seats filled. When you engage us, you are investing in a result, not borrowing the staff.
We take ownership of the entire product development chain, from system architecture and concept through detailed design, prototyping, testing, and into production and new product introduction. This is the model for OEMs who need a capable external partner to own the full development process and deliver a manufacturing-ready product.
We can also be brought in at any specific phase where internal expertise or bandwidth is lacking: system architecture at concept stage, DfX and detailed design, verification and validation before NPI, or production engineering at handoff. You are never required to commit to the entire chain to get value from one part of it.
In both cases, the principle is the same. We own the engineering and the output we deliver. That is what separates these product development engineering services from simply adding people to a project.
Both models add engineering capacity, but they solve different problems. Staff augmentation typically fills individual roles inside your existing organization, but you still have to manage them yourself. A dedicated engineering team is a coordinated unit that focuses on delivery, shares your technical context, and is aligned to your Ways of Working from the start.
Staff augmentation
Dedicated IEE engineering team
Engineering capacity is rarely the real bottleneck. The hard part is aligning a team to your product, your tools, and your methodology fast enough for it to matter. That's why our engagement model rests on four principles.
A team, not a roster of contractors
You get a cohesive unit, pre-trained on your Ways of Working and productive from day one, with zero management overhead and flat communication straight to your technical leads. The same people stay on your project for its duration. No rotation, no quietly losing the institutional knowledge your team spent months building, because it is documented and continuously developed through our competency model.
Methodology, not just capacity
We don’t sell engineering capacity; we provide engineering outcomes. Every engineer comes through the IEE Competence Model: foundational technical training, applied experience in advanced manufacturing sectors, and bespoke training in your specific Ways of Working, adapting to your tools, your processes, your standards. That's why we deliver complex advanced manufacturing services with faster integration and consistent quality, rather than a generic engineer who needs you to teach them your environment first.
EU nearshore, zero offshore risk
Greek engineering talent costs around 40% less per hour than equivalent talent in the Netherlands or Germany (Eurostat, 2023). And because Greece is a full EU member state, your work sits under the same GDPR, IP protection, and contractual enforcement framework as any European company. Our nearshore engineering teams give you cost efficiency without the jurisdictional gray zone, while staying fully aligned with European regulatory and business requirements.
Mobilization in weeks, not quarters
No bench periods, no account-management layers, no procurement bureaucracy slowing things down. When you need a team, our trained engineers are ready to contribute and deliver rapidly, ensuring a smooth and efficient project start.
Our dedicated teams take ownership of four interconnected domains across the build, integration, service, and upgrade lifecycle, with each one feeding the next. The diagnostic insight from a service sequence loops back into a sharper FMEA, which improves the next work instruction, raises first-time-right rates at integration, and ultimately increases machine availability in the field. Done well, the whole system gets smarter and more reliable with every cycle.
We design and optimize the assembly, service, and upgrade sequences that turn individual components into finished systems. Every step is defined with explicit pre- and post-conditions, then combined into a complete sequence. The result is efficient, safe, repeatable, and cost-effective, with errors and waste designed out rather than caught later.
Before a sequence is finalized, we run process FMEA (Failure Mode and Effects Analysis) sessions to identify and mitigate risks to safety, time, and cost early, while they’re still cheap to fix. We then apply Lean Six Sigma methodology to optimize the process for real production conditions, not ideal ones.
We produce clear, step-by-step work instructions tailored to manufacturing, service, and upgrade activities. Quality documentation is what makes excellence repeatable: it gives operators the guidance they need to work safely and efficiently, and it keeps output consistent regardless of who’s on shift.
If systems do fail, we apply structured root cause analysis in manufacturing environments to find the real source of a problem, not just its symptoms. This includes error-code-driven failure diagnostics that trace malfunctions and performance deviations quickly and precisely, resolved through dedicated service sequences so the same issue doesn’t keep recurring.
RAMS analysis is how we make reliability measurable instead of anecdotal. By breaking system availability down component by component, we predict performance using reliability models and historical data, and finally track it against live manufacturing and service data as the system runs. The reliability, availability and maintainability picture that emerges shows you exactly where uptime is being lost.
Those learnings don’t sit in a report. They feed directly back into existing sequences and work instructions, or back to the design team to redesign components and introduce redundancies.
The goal is concrete: hit target metrics like MTTR (Mean Time To Repair), MTTF (Mean Time To Failure), and MTBF (Mean Time Between Failures), and reduce manufacturing downtime in terms you can feel. The difference between a line that’s down four hours a month and one that’s down forty hours a month is the difference between a good quarter and a missed one.
We support the integration and validation of complex modules and systems to get first-time-right execution: full functionality, reliability, and compliance with your design specifications from the outset. Where required, this is followed by functional testing in a cleanroom environment to meet high-precision and particle-contamination standards.
And when an integration hits a wall, as complex builds sometimes do, our teams follow a structured backward troubleshooting protocol to isolate the cause methodically, rather than guessing and re-testing until something works.
We design and optimize the assembly, service, and upgrade sequences that turn individual components into finished systems. Every step is defined with explicit pre- and post-conditions, then combined into a complete sequence. The result is efficient, safe, repeatable, and cost-effective, with errors and waste designed out rather than caught later.
Before a sequence is finalized, we run process FMEA (Failure Mode and Effects Analysis) sessions to identify and mitigate risks to safety, time, and cost early, while they’re still cheap to fix. We then apply Lean Six Sigma methodology to optimize the process for real production conditions, not ideal ones.
We produce clear, step-by-step work instructions tailored to manufacturing, service, and upgrade activities. Quality documentation is what makes excellence repeatable: it gives operators the guidance they need to work safely and efficiently, and it keeps output consistent regardless of who’s on shift.
If systems do fail, we apply structured root cause analysis in manufacturing environments to find the real source of a problem, not just its symptoms. This includes error-code-driven failure diagnostics that trace malfunctions and performance deviations quickly and precisely, resolved through dedicated service sequences so the same issue doesn’t keep recurring.
RAMS analysis is how we make reliability measurable instead of anecdotal. By breaking system availability down component by component, we predict performance using reliability models and historical data, and finally track it against live manufacturing and service data as the system runs. The reliability, availability and maintainability picture that emerges shows you exactly where uptime is being lost.
Those learnings don’t sit in a report. They feed directly back into existing sequences and work instructions, or back to the design team to redesign components and introduce redundancies.
The goal is concrete: hit target metrics like MTTR (Mean Time To Repair), MTTF (Mean Time To Failure), and MTBF (Mean Time Between Failures), and reduce manufacturing downtime in terms you can feel. The difference between a line that’s down four hours a month and one that’s down forty hours a month is the difference between a good quarter and a missed one.
We support the integration and validation of complex modules and systems to get first-time-right execution: full functionality, reliability, and compliance with your design specifications from the outset. Where required, this is followed by functional testing in a cleanroom environment to meet high-precision and particle-contamination standards.
And when an integration hits a wall, as complex builds sometimes do, our teams follow a structured backward troubleshooting protocol to isolate the cause methodically, rather than guessing and re-testing until something works.
We work with advanced manufacturing OEMs across different sectors where engineering complexity, regulatory demands, and reliability requirements all meet at once.
Lithography, deposition, etch, and metrology equipment. Build, integration, and service support for the OEMs and tier-1 suppliers driving the next process nodes.
High-reliability systems where failure modes carry consequences far beyond cost. EU regulatory and IP compliance is built in, not an add-on.
Precision medical equipment developed and built under tight regulatory frameworks, where traceability and documentation are as critical as the engineering itself.
Build and integration support for the high-volume production systems and equipment behind modern e-powertrains, battery manufacturing, and EV assembly.
Engineering capacity for the assembly, service, and reliability of complex industrial machinery and the production systems that build it.
Support for the high-precision equipment and process systems used in chemical and advanced-materials production, including handling of demanding media and strict safety requirements.
We adapt the engagement model to your operation, not the other way around.
Engineers work from your factory or our local office, fully integrated into your daily operations and tools.
An Eindhoven hub handles on-site activities and knowledge transfer towards Greece-based teams, while the heavy engineering runs from our Greek delivery centers.
The team works entirely from our Greek hubs, plugged into your workflow through your tools and your cadence. If the workflow requires, our Greece-based teams can visit your location as frequent as needed.
Dedicated engineering support for a defined scope, deliverable, or operational challenge. Whichever model fits, the same governance and accountability apply. Our footprint spans Larisa, Chania, and Platykampos in Greece, with our IEE BV front office in Eindhoven acting as the bridgehead for Northern European clients, so you always have a point of contact close to home.
A dedicated engineering team is a group of engineers aligned to your product, your processes, and your Ways of Working. Unlike traditional engineering outsourcing services, the team operates as an extension of your own organization, working within your tools, your documentation standards, and your delivery cadence. This lets you scale engineering capacity without increasing management complexity.
A dedicated engineering team is often the better choice when projects need to start quickly, local hiring timelines are too long, or internal teams are already at capacity. It gives you immediate access to experienced engineers without the delays of recruitment, onboarding, and building a new team from scratch.
Staff augmentation typically adds individual resources to an existing team that you still manage. A dedicated engineering team provides a coordinated unit that already shares a technical context, delivery objectives, and Ways of Working. The focus isn’t on filling seats; it’s on structured engineering capacity that can contribute from day one.
Our teams support build, integration, service, and upgrade activities across the equipment lifecycle. That includes sequence engineering, manufacturing work instructions, diagnostics, RAMS analysis, reliability improvement, factory support, first integrations, troubleshooting, and engineering documentation for advanced manufacturing environments.
In most cases, we mobilize a team within 4–6 weeks of contract signature, depending on team size and the competencies required. Because our engineers come through a structured Competence Model and are trained on your specific Ways of Working, they begin contributing meaningfully far sooner than a typical hiring process allows.
We reduce manufacturing downtime by combining diagnostics, reliability engineering, RAMS analysis, and structured service processes. By identifying recurring failure modes, improving maintainability, and shortening repair times, we help you raise equipment availability and achieve more predictable operational performance.
We support advanced manufacturing OEMs and suppliers across semiconductors, aerospace and defense, medical instruments, automotive and electric vehicles, industrial machinery, and chemical and material manufacturing. In every sector, our teams adapt to your processes, your regulatory requirements, and your technical environment.
Tell us about your engineering capacity needs, and explain where you’re stuck. In a 45-minute technical discovery call, our engineering leads will assess your current bottlenecks and come back with a custom team structure, a Ways of Working integration plan, and a transparent cost analysis.
