Product engineering services for new product development and NPI, delivered by an engineering partner that takes ownership from concept to manufacturing release.
We deliver product engineering services for complex manufacturing OEMs, taking responsibility for the full development lifecycle, or for a single phase where the expertise is missing. You hand us a problem and a specification; we hand back engineering that works.
Our engineers run a structured development process that finds risk early, and keeps the project moving toward manufacturing readiness, rather than discovering late that a design can’t be built, can’t be serviced, or can’t be certified. Every phase has a defined output, and every output is reviewed before it moves forward.
The result is design engineering services backed by deep technical expertise, rigorous engineering processes, and full compliance with EU IP and GDPR frameworks. European standards, European data protection, at a cost structure Northern European OEMs rarely have access to at home.
Nearshore cost saving
up to 40%
Mobilisation time
4-6 Weeks
Projects delivered
60+
EU offices
4
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
Most of a product’s lifecycle cost is locked in during the design phase: manufacturing, servicing, warranty, and lifecycle support. Decisions made in week three of system architecture determine what your production line will spend hours doing for the next ten years. The same logic governs mistakes. A change during requirements analysis costs hours. The same change after release to manufacturing costs weeks. The same change after first integration costs months, and forces redesign cycles that eat directly into your launch window.
Design is the cheapest place to be right and the most expensive place to be wrong.
This is exactly what V-Model systems engineering exists to do. At every level, from requirements analysis and system architecture to component design, our engineers actively look for design issues, requirement gaps, and integration risks before they cascade down the V.
Verification activities are mapped to their corresponding design level, so what gets built on the right side of the V matches what was specified on the left. For you, that means new product introduction timelines that hold, and lifecycle costs that come in on budget.
Our work follows a four-phase product development lifecycle. You can engage us for the full chain or for any single phase, but each phase exists for a reason: to reduce technical risk before it becomes expensive further down the line. Each one makes the next cheaper, faster, and more predictable.
This is the technical foundation, and it is where the largest cost decisions are quietly made. We define the system architecture, run feasibility studies to confirm what is achievable within your constraints, and perform structured risk analysis and mitigation before a single component is detailed.
Getting requirements and architecture right is what prevents costly rework in later phases. Our V-Model approach moves deliberately from requirements analysis and specification to system architecture and high-level design, through to component and low-level design, so that every later decision rests on a foundation that has already been thoroughly reviewed.
This is where architecture becomes a buildable product. We produce the mechanical and electrical layouts, engineer the thermal and fluid dynamics, and integrate optics where the application demands it.
The work is delivered through 3D CAD models, detailed technical drawings with full GD&T (Geometric Dimensioning and Tolerancing), FEM (Finite Element Method) analysis to validate structural performance, and structured BOM (Bill of Materials) management.
Designs are pressure-tested in design FMEA sessions, HAZOP (Hazard and Operability) studies, and Critical Design Reviews before release, and documented in P&ID (Piping and Instrumentation Diagrams) and FBD (Functional Block Diagrams). Throughout, we apply DfX (Design for X), optimizing for manufacturability, power, variability, cost, yield, or reliability according to your priorities. This is where design for manufacturability stops being a principle and becomes a set of concrete decisions that determine what your line can actually produce.
A design is a hypothesis until it is tested. In this phase, we prove the product against its specification and resolve what the prototype reveals. We manage BOM changes as the design matures, run diagnostics and troubleshooting on what the build exposes, and carry out structured verification and validation.
This follows the right-hand side of the V-Model directly: component testing and verification, then module integration and testing, then system acceptance testing and validation. Each stage confirms that what was built matches what was specified at the corresponding design level, so issues are caught and closed before they reach production, where they would cost far more to fix.
A validated design still has to survive contact with a production line. In this final phase we take the design into production readiness through manufacturing engineering, support the transition to volume through sustaining engineering, keep the machines running through equipment and service engineering, and handle customer support integration so the handoff doesn’t leave gaps.
This is the new product introduction endpoint: the point where engineering rigor either pays off in a smooth manufacturing ramp or doesn’t. Because the same partner owns the design, the production knowledge isn’t lost in translation between vendors. We carry it through to a stable, manufacturable and serviceable product.
This is the technical foundation, and it is where the largest cost decisions are quietly made. We define the system architecture, run feasibility studies to confirm what is achievable within your constraints, and perform structured risk analysis and mitigation before a single component is detailed.
Getting requirements and architecture right is what prevents costly rework in later phases. Our V-Model approach moves deliberately from requirements analysis and specification to system architecture and high-level design, through to component and low-level design, so that every later decision rests on a foundation that has already been thoroughly reviewed.
This is where architecture becomes a buildable product. We produce the mechanical and electrical layouts, engineer the thermal and fluid dynamics, and integrate optics where the application demands it.
The work is delivered through 3D CAD models, detailed technical drawings with full GD&T (Geometric Dimensioning and Tolerancing), FEM (Finite Element Method) analysis to validate structural performance, and structured BOM (Bill of Materials) management.
Designs are pressure-tested in design FMEA sessions, HAZOP (Hazard and Operability) studies, and Critical Design Reviews before release, and documented in P&ID (Piping and Instrumentation Diagrams) and FBD (Functional Block Diagrams). Throughout, we apply DfX (Design for X), optimizing for manufacturability, power, variability, cost, yield, or reliability according to your priorities. This is where design for manufacturability stops being a principle and becomes a set of concrete decisions that determine what your line can actually produce.
A design is a hypothesis until it is tested. In this phase, we prove the product against its specification and resolve what the prototype reveals.
We manage BOM changes as the design matures, run diagnostics and troubleshooting on what the build exposes, and carry out structured verification and validation.
This follows the right-hand side of the V-Model directly: component testing and verification, then module integration and testing, then system acceptance testing and validation.
Each stage confirms that what was built matches what was specified at the corresponding design level, so issues are caught and closed before they reach production, where they would cost far more to fix.
A validated design still has to survive contact with a production line. In this final phase we take the design into production readiness through manufacturing engineering, support the transition to volume through sustaining engineering, keep the machines running through equipment and service engineering, and handle customer support integration so the handoff doesn’t leave gaps.
This is the new product introduction endpoint: the point where engineering rigor either pays off in a smooth manufacturing ramp or doesn’t. Because the same partner owns the design, the production knowledge isn’t lost in translation between vendors. We carry it through to a stable, manufacturable and serviceable product.
Early defect detection
Our phase-gate process, built on structured risk analysis, design and process FMEAs, HAZOPs, and Critical Design Reviews, exists to identify issues before they become expensive. A defect caught at the concept or design stage costs a fraction of the same defect caught at prototyping or production. For procurement and finance, this is the central argument: early design rigor is cost avoidance, not cost. It is cheaper to find the problem in a review than on the line.
Flexible engagement
We can take on the full development lifecycle or a single phase. You are not required to commit to the entire chain, and you are not penalized for needing help with only one part of it. The scope fits the gap you actually have.
Deep domain expertise
Our engineers cover thermal and fluid management, precision mechanics, vacuum and optical systems, electrical and power infrastructure, and advanced metrology. This is the full scope of complex manufacturing engineering, not a narrow specialty stretched to fit your problem.
Built to integrate
Our engineers are trained to work as an extension of your teams, not as an outside vendor held at arm's length. They embed into existing workflows and communicate fluently with leaders across departments, keeping disciplines aligned instead of siloed. This is a versatile group that fits into your organization and contributes from day one, not a set of specialists who need constant translation and oversight.
Structured engineering methodology
We operate under a rigorous V-Model and concurrent engineering approach, with peer reviews based on the four-eye principle, structured checklists, and defined quality processes on every project. Rigor is built into how we work, not added at the end as a review step.
EU-based, zero offshore risk
Our engineering talent sits under full EU GDPR and IP frameworks, giving you the same legal guarantees as any other Northern European firm, with roughly 40% average cost reduction (based on Eurostat labor cost data). You get European standards and European data protection without the Northern European price tag.
Proven in high-stakes environments
We work with OEMs in semiconductors, aerospace, and medical devices, sectors where engineering errors carry severe downstream consequences. The discipline that those environments demand is the discipline we bring to every project.
Our engineers work across five technical domains that frequently determine the success of complex product development programs, from thermal management and precision mechanics to vacuum systems, advanced metrology, and high-performance electrical infrastructure.
Precision temperature control and fluid dynamics are often what separate a working system from a failing one in advanced manufacturing. We engineer heat management and thermal management systems, water and CO₂ cooling, microchannel cooling, and heat shields, along with high-pressure gas management and the handling of liquid and molten metals. These are the systems where a few degrees or a small pressure deviation decides whether the product performs to specification.
When tolerances are measured in microns and structural integrity is non-negotiable, the mechanical design must be exact. We engineer frames, jigs, handling tools, and transport equipment, along with metrology and precision subsystems, for environments where a small structural deflection or misalignment compromises the entire system. The work balances rigidity, repeatability, and manufacturability under demanding conditions.
Semiconductor and advanced instrumentation environments, also known as cleanrooms, demand extreme precision and cleanliness, and the engineering must respect both at once. We work on optical systems and microscopy, optical column conditioning across lenses, pellicles, and mirrors, and contamination control, alongside vacuum systems up to ultra-high vacuum, turbomolecular pumps, leak testers, and burst disks. A single particle or a marginal seal can invalidate an entire process, so the design margins here are unforgiving.
Complex machinery only performs if its electrical backbone is reliable and safe. We engineer electrical systems, power and communication infrastructure, cabinets and safety systems, cable layout, and telecommunications, integrating them cleanly into machines where space, heat, and electromagnetic interference all compete. The goal is electrical integration that is safe, serviceable, and built to hold up under continuous operation.
Some problems require analytical depth before they require design. We bring physics modeling, data analysis, and sensor characterization, along with specialized capabilities such as studying radiation damage in semiconductor materials, forensic studies using high-end microscopy, and multispectral and hyperspectral imaging. This is the analytical foundation that supports instrumentation and metrology-critical applications, where understanding the physics correctly is the difference between a measurement you can trust and one you can't.
We deliver product development engineering across six sectors where engineering complexity, regulatory demand, and reliability requirements converge.
High-precision product development for lithography, metrology, and deposition equipment. We have validated experience with the engineering standards of leading semiconductor OEMs.
Complex systems where requirements traceability, structural integrity, and design rigor are non-negotiable, and where documentation is part of the deliverable.
Development under strict regulatory documentation requirements and safety standards, where traceability is as important as the engineering itself.
Product development for high-performance drivetrain, thermal management, and power systems built for volume production.
End-to-end design engineering for complex capital equipment, from architecture through manufacturing readiness.
Process equipment development under demanding operational and compliance requirements, including the handling of difficult media.
Design engineering is one of three ways we support advanced manufacturers. If your need is different, the right service may be one of these:
Yes. While many clients engage us for the full product development lifecycle, we can also take ownership of a specific phase. Typical examples include system architecture, feasibility studies, detailed design, design for manufacturability and serviceability, verification and validation, or production readiness activities before new product introduction.
Yes. Many engagements begin with a focused phase such as a feasibility study, a system architecture review, a design assessment, or the industrialization of a specific subsystem. This lets both parties validate the technical approach, the working relationship, and the delivery model before expanding into a broader product development program.
Scope changes are a normal part of product development, particularly during NPI. We manage them through a structured change process that evaluates technical impact, timeline implications, and cost. Any proposed change is reviewed jointly, documented formally, and agreed before implementation, so there are no surprises and the engagement stays transparent throughout.
Most engagements can begin within 4–6 weeks of contract signature, depending on the scope and the competencies required. During the technical scoping process, we define the project objectives, the delivery approach, and a target start date, so engineering activities begin with a clear plan and agreed responsibilities.
Design for Manufacturability (DFM) is the practice of designing products so they can be manufactured efficiently, consistently, and cost-effectively. Decisions made during the design phase influence production complexity, quality, lead times, and lifecycle costs. Addressing manufacturability early helps reduce rework, avoid late-stage design changes, and support smoother NPI execution.
Design for Serviceability (DFS) is the practice of designing products so they can be serviced and maintained safely, quickly, and cost-effectively. Decisions made during the design phase influence component accessibility, diagnostic speed, repair complexity, and downtime. Addressing serviceability early helps reduce repair times, lower maintenance costs, and raise equipment availability across the product’s operational life.
Design engineering services are outcome-focused: we take ownership of a defined engineering scope, its deliverables, and its technical results. Dedicated engineering teams work within your organization, processes, and project structure. If you need engineering work delivered independently, design engineering services are the better fit. If you need additional capacity inside your existing team, a dedicated team is usually the right model.
Tell us where you are in the development cycle and whether you need a partner for a single phase or the full lifecycle. In a 45-minute scoping call, our engineering leads will review your requirements and come back with a clear proposal.
