In 2025, the global hardware and software development market is growing faster than ever before. Companies around the world are competing not only for customers and new computer hardware technologies, but above all for the best engineering talent, which has become one of the key assets driving market advantage today.
According to ResearchAndMarkets, the value of the global hardware development market reached $135.43 billion in 2025 and is expected to grow to $164.56 billion by 2029, reflecting a compound annual growth rate of 5%. This trend directly translates into increasing recruitment needs in the high-tech sector and intensified competition for top specialists.
That is why in this article we present a ranking of countries that, in 2025, stand out in terms of both the availability and the quality of engineering talent in hardware systems development, including expertise in physical components and embedded systems.
When selecting the countries best suited for sourcing successful hardware engineers, the key question is: what specific factors make one location better than another? We considered five main criteria:
Technology companies around the world are looking for specialists who can combine academic knowledge with practical experience. With the growing demand for highly skilled engineers, location is becoming increasingly important. Where companies choose to recruit talent directly affects costs, quality, and the pace of project execution.
Poland is one of the main engineering hubs in Europe. Thanks to strong universities (Warsaw University of Technology, AGH University of Science and Technology, Wrocław University of Technology) and R&D centers (Intel, Nokia, InTechHouse), the country is attractive for both startups and corporations. Nearshoring to Poland allows Western companies to cut costs by up to 40% compared to local markets, while still ensuring access to comprehensive technical assistance.
Technical graduates: approx. 80,000 annually
Average embedded engineer salary: €25–35/h (B2B)
R&D expenditure: 1.46% of GDP (2024)
Pros:
Cons:
If you want to discover the top 10 hardware development companies in Poland, check out our ranking:
https://intechhouse.com/blog/top-10-hardware-development-companies-in-poland-2025/
Sweden is a country with very high quality standards and a long tradition in regulated industries (medtech, automotive, defense). Companies such as Prevas or Sigma Connectivity operate globally but maintain R&D at home. The downside is the high cost, but in return, firms gain access to top-quality talent certified under ISO 13485 or ISO 26262.
STEM graduates annually: approx. 20,000
Average embedded engineer salary: €55–70/h
R&D expenditure: 3.5% of GDP (among the highest in the EU)
Pros:
Cons:
Germany is a global leader in industrial automation and automotive electronics. A strong industrial base and companies such as Würth Elektronik or Bosch make this market ideal for projects requiring precision, reliability, and compliance with industrial standards, especially in medical devices and automotive electronics.
Number of engineers in the market: over 1.1 million (approx. 200,000 in electronics and embedded)
Average salary: €50–65/h
R&D expenditure: 3.13% of GDP
Pros:
Cons:
The USA is the global center of innovation – Silicon Valley, Austin, and Boston host the world’s largest high-tech companies. Engineers here combine cutting-edge expertise with exceptional problem solving skills, making the country ideal for pioneering projects. Most investments go into prototyping, defense projects, medtech, and machine learning hardware accelerators, where maximum Intellectual Property (IP) protection is required. The downside is the highest costs – but it is in the US where the most advanced hardware technologies are created.
Number of hardware/embedded engineers: approx. 1.6 million
Average salary: €70–120/h (highest in this ranking)
R&D expenditure: 3.45% of GDP
Pros:
Cons:
India has one of the largest engineering talent pools in the world. Companies such as Happiest Minds or Utthunga deliver IoT and embedded systems projects for global clients. It is an excellent location for projects requiring scale and cost efficiency, but effective remote management is crucial.
Engineering graduates annually: approx. 1.5 million
Average embedded engineer salary: €10–20/h
R&D expenditure: 0.9% of GDP
Pros:
Cons:
Kazakhstan is emerging as an unexpected destination for engineering outsourcing. Integra Sources from Astana has shown that local teams are capable of executing advanced projects in FPGA, PCB, and robotics. It is an interesting alternative for companies looking for specialized niche partners.
Technical graduates annually: approx. 25,000
Average salary: €15–25/h
R&D expenditure: 0.17% of GDP (relatively low, but growing)
Pros:
Cons:
Shenzhen is the world’s hardware and electronics hub. Companies such as Asia Pacific Circuits provide full support – from prototyping to mass production. China is the best choice when time-to-market and large-scale manufacturing process capabilities matter. The downsides, however, may include communication barriers and lower process transparency.
PCB production: over 50% of the global market
Average engineer salary: €15–30/h
R&D expenditure: 2.4% of GDP
Pros:
Cons:
Canada has been investing in new technologies for years, including electronics and embedded systems. Engineering hubs in Toronto, Vancouver, and Montreal specialize in IoT, telecommunications, and medical solutions. Government support for tech companies (grants and tax incentives) makes Canada attractive for startups seeking a safe and stable ecosystem.
Number of electronics and embedded engineers: ~120,000
Average engineer salary: €45–65/h
R&D expenditure: 1.8% of GDP
Pros:
Cons:
Israel is a global powerhouse in innovation, especially in cybersecurity, military hardware, network security, semiconductors, and medtech. It is known for its high concentration of startups and close cooperation between the civilian and military sectors (dual-use projects). It is the best destination if a project requires top-level innovation and specialized expertise in critical electronics.
Number of high-tech engineers: approx. 320,000 (over 10% of the entire workforce!)
Average salary: €55–80/h
R&D expenditure: 4.9% of GDP (the highest in the world)
Pros:
Cons:
Vietnam is becoming the “new Shenzhen” of Southeast Asia. Thanks to investments from Samsung, Intel, and LG, the country is quickly building capabilities in assembly, PCB design, and simple IoT systems. More and more companies are relocating production from China to diversify their supply chains. Vietnam is a good choice for projects requiring very low costs and fast prototyping.
Technical graduates annually: ~100,000
Average embedded engineer salary: €8–15/h
R&D expenditure: 0.5% of GDP (growing alongside foreign investments)
Pros:
Cons:
|
Country |
Graduates / Engineers |
Average Rate |
R&D (% GDP) |
Key Advantages |
Key Disadvantages |
|
Poland |
80k graduates annually |
€25–35/h |
1,46% |
Low costs, strong universities, EU proximity, IoT/embedded expertise |
Lower R&D than DE/SE, brain drain, bureaucracy |
|
Sweden |
20k STEM annually |
€55–70/h |
3,5% |
High R&D spending, medtech/auto/defense expertise, global firms |
Very high costs, small talent pool |
|
Germany |
1.1M engineers (200k embedded) |
€50–65/h |
3,13% |
Largest EU engineering market, strong industrial base, automotive leader, stability |
High costs, bureaucracy, startup barriers |
|
USA |
1.6M hardware engineers |
€70–120/h |
3,45% |
Largest innovation ecosystem, best IP protection, aerospace/medtech leader |
Highest costs, strict regulations, visa/talent access issues |
|
India |
1.5M graduates annually |
€10–20/h |
0,9% |
Largest talent pool, very low costs, IoT/embedded outsourcing |
Uneven education quality, weak IP protection |
|
Kazakhstan |
25k graduates annually |
€15–25/h |
0,17% |
Growing tech ecosystem, niche FPGA/PCB skills, EU–Asia location |
Very low R&D, small talent base, stability risks |
|
China |
4.7M STEM annually |
€15–30/h |
2,4% |
Global hardware hub (Shenzhen), rapid prototyping, full supply chain |
Weak IP protection, geopolitical risks, rising costs |
|
Canada |
~120k engineers |
€45–65/h |
1,8% |
Stable ecosystem, strong government support, IoT/medtech expertise |
Higher costs, smaller pool vs. US |
|
Israel |
320k engineers (10% workforce) |
€55–80/h |
4,9% |
World’s top R&D spending, cyber/defense, startup hub, global R&D centers |
High costs, geopolitical instability, small market |
|
Vietnam |
100k graduates annually |
€8–15/h |
0,5% |
Lowest costs, fast-growing electronics sector, global investments |
Low innovation, language barriers, weak standards |
If you want to dive deeper into the secrets of the hardware development process, we encourage you to read the article:
https://intechhouse.com/blog/7-common-problems-in-the-hardware-development-process/
For companies planning long-term projects in embedded systems, IoT, or electrical engineering, a strategic approach to talent diversification will be crucial – combining teams across different countries to balance costs, skill availability, and technological security.
Ultimately, there is no single “best country” for hardware development. The optimal choice depends on business goals, project scale, and technological requirements. Companies that carefully select their partners and locations will gain a competitive advantage in the global race for innovation.
If you are looking for a partner to help you deliver the most demanding hardware and computer software systems projects, InTechHouse is a trusted choice. The company has been operating continuously since 2005, gaining extensive experience in international projects for clients across Europe, America, and Asia. It consistently receives top ratings on the Clutch platform. By choosing to work with InTechHouse, you gain access to a team of experts—so schedule your free consultation today.
What are the most common mistakes when choosing a country for hardware development?
Companies often focus solely on labor cost, ignoring factors such as quality, IP protection, or time zone differences. As a result, the savings can be “eaten up” by delays and rework.
What role do software tools play in hardware development?
Modern software tools (like Altium Designer or Cadence OrCAD) are critical for accelerating design, simulation, and testing processes. They help reduce time-to-market and improve product quality.
Is it worth combining teams from different countries in one project?
Yes, if the project has different stages that require diverse skill sets. For example: system design in Europe (high quality) and production in Asia (low cost).
How can you verify the credibility of a foreign engineering company?
The best ways include audits, references from existing clients, verification of certifications (ISO, IPC), and evaluating real case studies—not just marketing descriptions.
How important is geographical proximity in hardware projects?
For complex prototypes, it’s very important, since teams may need to meet physically in a lab. For purely R&D projects (e.g., FPGA, firmware), distance matters much less.
