Pakistan’s national semiconductor education initiative reached a structural milestone today. On August 29, 2026, NED University of Engineering & Technology became the third and final regional lead under the Semiconductor Education & Research Cluster (SERC) network, joining NUST and ESUPAK-UET Lahore to complete the institutional framework of the National Semiconductor Human Resource Development Program — formally known as INSPIRE. Federal Minister for IT and Telecommunication Shaza Fatima Khawaja witnessed the signing of the agreement between the Pakistan Software Export Board (PSEB) and NED University in Karachi.

The program now has a national structure in place. What happens next will determine whether Pakistan builds a semiconductor talent pipeline that actually feeds into the global chip economy — or whether INSPIRE becomes another well-structured initiative that struggles to deliver at scale.

In Brief

  • NED University is now the South Region lead under SERC, completing Pakistan’s three-cluster semiconductor education framework alongside NUST (North) and ESUPAK-UET Lahore (Central)
  • The program — formally NSHRDP, known as INSPIRE — has completed all three institutional agreements within its first year of operation
  • The current intake across the three regional clusters stands at 270 students
  • INSPIRE targets training more than 7,200 semiconductor professionals in Pakistan by 2030
  • The semiconductor industry requires specialized skills in chip design, verification, testing, and embedded systems — areas where Pakistan has existing engineering education depth but limited industry exposure

What INSPIRE Is Trying to Build

Semiconductors are the foundational layer of modern technology. Every smartphone, electric vehicle, industrial sensor, and AI accelerator runs on chips. The global semiconductor industry was valued at over $600 billion in 2024, and demand continues to grow as AI hardware, automotive electronics, and advanced communications require increasingly specialized silicon.

The challenge for most countries outside the established semiconductor hubs — Taiwan, South Korea, the United States, the Netherlands — is not just manufacturing. Chip manufacturing requires fabrication plants (fabs) that cost billions of dollars each and years of operational expertise to run. Countries entering the semiconductor space typically start not with fabs but with design: training engineers in chip architecture, logic design, verification, and testing, then connecting that talent to the global industry as a design-services workforce.

This is the model INSPIRE is following. According to the IT Ministry, the program targets skills across “chip design, manufacturing, testing and related technologies.” The explicit focus on human resource development — rather than on building a fab — reflects a realistic assessment of where Pakistan can participate in the semiconductor value chain in the near term.

Three Clusters, Three Regions

The SERC framework assigns regional responsibility to three universities:

  • NUST (National University of Sciences and Technology) — North Region, based in Islamabad
  • ESUPAK-UET Lahore — Central Region, based in Lahore
  • NED University of Engineering & Technology — South Region, based in Karachi

The three universities are each established engineering institutions with existing electronics, electrical engineering, and computer science programs. NUST has been a consistent presence in technology research partnerships, as seen in the DynaSys Networks–NUST IoT collaboration announced earlier this month. NED has deep roots in Karachi’s industrial and engineering community. UET Lahore is one of Pakistan’s oldest engineering universities.

By assigning regional leads, the program distributes access across Pakistan’s major population and industrial centres rather than concentrating resources in a single location. Whether each cluster develops its own research strengths or functions more as a coordinated national program will shape how the talent base evolves.

270 Students Now, 7,200 by 2030: A Realistic Assessment

The current cohort of 270 students across three clusters is a meaningful start — but it is important to set it in proportion to the stated target.

Reaching 7,200 semiconductor-trained professionals by 2030 means training roughly 1,200 to 1,800 new professionals each year over the next four to five years. With three universities and an initial 270-student cohort, that ramp is achievable in principle — but it requires several things that institutional frameworks do not automatically provide:

Faculty with semiconductor expertise. Chip design and verification require instructors with direct industry or research experience. Pakistan has a shortage of faculty who have worked inside a semiconductor design flow. Programs in countries like India have addressed this through partnerships with companies including Qualcomm, ARM, and Cadence that supply curriculum content, simulation tools, and guest instruction. Whether INSPIRE has similar arrangements is not yet public.

EDA tool access. Electronic Design Automation (EDA) software — the tools engineers use to design and simulate chips — is expensive. Tools from Synopsys and Cadence can cost hundreds of thousands of dollars per license for commercial use. Academic licensing agreements exist but need to be negotiated. Without access to industry-standard EDA tools, graduates learn concepts without developing the practical skills that employers require.

Industry linkage. Semiconductor engineers need somewhere to apply their skills. Pakistan currently has limited domestic chip design activity. Export-oriented design services — working for foreign fabless semiconductor companies that need verification engineers, IP developers, or embedded firmware specialists — is the near-term realistic path. The program’s success will partly depend on whether industry partnerships are developed alongside the academic framework.

None of this is a criticism of the program. It is a description of the next layer of work that institutional completion enables. Having three signed agreements is the foundation. Building the curriculum, tools, faculty, and industry relationships on top of that foundation is the substance.

Why This Matters Beyond the Headline Number

The semiconductor ambition matters for reasons that go beyond the chip industry itself.

Pakistan’s IT exports reached a record $4.6 billion in FY2025-26, as covered in the August 8 roundup. The overwhelming majority of that figure comes from software services, business process outsourcing, and app development. Semiconductor design services are a higher-margin, more technically differentiated category of exports. Countries that have built semiconductor design capacity — India, Malaysia, Vietnam, Poland — have used it to move up the value chain in their technology export mixes.

The memory and silicon supply chain disruptions of 2026 also underline how dependent every technology product builder is on chip availability and pricing that originates entirely outside Pakistan. Domestic semiconductor expertise will not eliminate import dependency in the near term, but it does create the knowledge base needed to make informed hardware decisions — choosing the right silicon architecture for a product, evaluating chip alternatives during supply shortages, or contributing to the verification and testing of chips designed elsewhere.

For the makers, robotics builders, and hardware product teams that are a growing part of Pakistan’s technology ecosystem, semiconductor-literate engineers are a meaningful asset — even if those engineers are never employed at a chip fab.

What This Looks Like From a Product-Building Perspective

For teams building hardware products in Pakistan — robotics platforms, industrial sensors, embedded systems, consumer electronics — the shortage of engineers who understand silicon is a real constraint. Most hardware product development in Pakistan today relies on off-the-shelf microcontrollers and development boards. That is entirely sensible for early-stage products, but it creates dependency on chip architectures designed and priced by others.

Engineers trained in chip design, verification, and embedded systems do not only work at semiconductor companies. They contribute to hardware product teams that need to select the right SoC for a product, optimize firmware to fit within chip constraints, understand timing and power budgets, or evaluate custom ASIC options when volume and margin justify them. Building a base of semiconductor-literate engineers serves the broader hardware ecosystem, not just a hypothetical future chip industry.

The INSPIRE program’s regional cluster structure also has an interesting secondary effect: it brings semiconductor education closer to the industrial cities where hardware companies actually operate. Karachi, Lahore, and Islamabad are each home to electronics manufacturing, embedded systems work, and technology product development. A supply of locally trained engineers, even at the early stages of the program, creates a recruitment path that did not previously exist.

What to Watch Next

  • Curriculum and tool partnerships: Whether PSEB and the universities announce formal partnerships with EDA tool providers, chip companies, or industry bodies will be an early signal of how deeply the program is connected to real-world semiconductor practice.
  • First cohort outcomes: The 270 students currently enrolled in the three clusters will be the program’s first measurable output. Tracking where they go after training — local tech companies, export clients, graduate research — will indicate whether the design is working.
  • Industry response: Whether Pakistan’s software houses, hardware companies, and export-oriented tech firms begin to engage with the SERC graduates as a talent pool worth recruiting.
  • Pakistan Digital Authority alignment: The recently established Pakistan Digital Authority has been coordinating digital policy across sectors. Whether INSPIRE connects with the broader National AI Policy 2025 and the government’s digital workforce development goals will shape its long-term scale.
  • International recognition: Semiconductor employers — fabless chip companies in the US, Europe, and Asia that need design services — will eventually need to evaluate whether INSPIRE graduates have skills comparable to those from Indian or Malaysian programs. That credentialing challenge is not a reason to avoid building the program; it is a hurdle that will need to be cleared for the export-services model to work.

Conclusion

Pakistan’s INSPIRE program has completed what it set out to build in its first year: a nationally distributed, institutionally anchored semiconductor education framework with recognized university leads in three regions. The 270 students currently enrolled are a starting point, and the 7,200-professional target by 2030 is ambitious but not impossible if the next layer of work — faculty development, EDA tool access, and industry partnership — gets the same attention as institutional setup.

The harder question for Pakistan’s technology sector is not whether INSPIRE can train 7,200 engineers. It is whether those engineers will find a domestic industry waiting for them, or whether they will need to build that industry themselves. Both outcomes are possible. But the second one requires more than a training program — it requires the same kind of intentional, long-term ecosystem development that the semiconductor cluster network now provides for education.

What do you make of Pakistan’s semiconductor education push? If you are building hardware products, working in embedded systems, or teaching electronics in Pakistan, I would like to hear what skills you are finding hardest to source — and whether programs like INSPIRE are building in the right direction.

Sources

Shamyl Bin Mansoor

Shamyl Bin Mansoor is a technology entrepreneur, product builder and STEAM educator. He is Co-founder and CTO of LearnOBots and works on educational technology, robotics and interactive learning products. Learn more about him.

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