Indonesia makes tens of millions of phones and hundreds of thousands of vehicles every year. But almost all the chips inside them come from abroad. When the world ran short of semiconductors a few years ago, car factories everywhere had to slow down because they simply couldn’t get enough chips.

In 2026, Indonesia is trying to change that. The government has laid out a roadmap, launched a national chip design center with universities, and is actively courting semiconductor investment. Here’s what’s happening, how the chip industry actually works, and why this could open big doors for future computer engineers.

What’s Happening

The numbers show why the push matters. According to Minister of Industry Agus Gumiwang Kartasasmita, Indonesia’s semiconductor imports nearly doubled from US$2.33 billion in 2020 to US$4.87 billion in January–November 2025. Meanwhile, the country produces 30–60 million mobile phones a year and made 803,867 motor vehicles in 2025, all of which depend on chips.

At the Indonesia Semiconductor Summit in Bandung on January 29, 2026, the minister said chip design and human resources are the main foundation for semiconductor independence, and that the industry must be built step by step, not overnight. The government’s roadmap covers four pillars: materials, chip design, fabrication (making the chips), and assembly, testing, and packaging. A key initiative is the Indonesia Chip Design Collaborative Center (ICDeC), a nonprofit collaboration between government, industry, and 16 partner universities.

People are the biggest challenge. In March 2026, officials said Indonesia needs around 15,000 engineers for the semiconductor industry alone, across design, development, and production. Danantara, Indonesia’s sovereign wealth fund, is also involved: its chief technology officer said the ecosystem requires identifying priority products, expanding chip design capabilities, preparing fabrication capacity, and growing a skilled workforce.

The Tech Behind It: How a Chip Is Made

A chip goes through several very different stages before it ends up in your phone. It starts with design, where engineers decide what the chip will do and describe its circuits using special hardware description languages and software tools. A modern chip can contain billions of transistors, so design also involves a lot of simulation and testing before anything physical is made.

Next comes fabrication, often called the “front end.” In a fab, the design is printed layer by layer onto silicon wafers using extremely precise machines. This stage is the most expensive part of the industry, which is why only a handful of companies in the world do it at the most advanced level.

Finally, there’s assembly, testing, and packaging, the “back end.” The wafer is cut into individual chips, each one is tested, and then it’s sealed into a protective package with connections to the outside world. Many countries enter the semiconductor industry through design and back-end work first, because they need less capital than building a cutting-edge fab. That’s very close to the step-by-step approach Indonesia’s roadmap describes.

What It Means for Future Engineers

If Indonesia wants 15,000 semiconductor engineers, someone has to become them. Chip design in particular is a natural path for computer engineering graduates, because it combines digital logic, computer architecture, and programming. Designing a processor or a sensor chip is, in many ways, writing software that becomes hardware.

There’s also a growing ecosystem around it. Local GPU assembly is planned to start near Jakarta in December 2026, and electronics makers need engineers who understand how chips fit into complete products, from circuit boards to firmware. With 16 universities already involved in ICDeC, students are increasingly able to get hands-on with real chip design projects.

You can start building the foundations now. Learn how logic gates and binary work, experiment with microcontrollers, and if you’re curious, try beginner-friendly FPGA boards, which let you design your own digital circuits and see them run in real hardware.

Key Takeaways

Indonesia’s semiconductor imports nearly doubled to US$4.87 billion in January–November 2025, and the government is responding with a four-pillar roadmap covering materials, design, fabrication, and assembly-testing-packaging. The new Indonesia Chip Design Collaborative Center brings together 16 universities, and officials estimate the industry needs around 15,000 engineers. The message is clear: chip design and skilled people come first.

Want to design the chips that power Indonesia’s future? The Computer Engineering program at BINUS University builds your skills in digital systems, computer architecture, and embedded hardware. Explore the program and become part of Indonesia’s semiconductor story.

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