Building More Ways to Learn Beyond Borders

International education is about more than studying in another country.

It is about giving students access to different academic environments, new perspectives and networks that extend beyond one campus.

In July 2026, MAHANAKORN welcomed a delegation from James Cook University (JCU), Australia, for discussions focused on expanding academic collaboration and creating more opportunities for students, faculty and researchers.

The visit continued a relationship between the two universities that already includes international study pathways and academic cooperation.

From Partnership to Student Opportunity

Discussions during the visit explored several areas for future collaboration, including:

The aim is not simply to create more agreements.

It is to create more ways for students and academics to study, collaborate and work across countries.

A Pathway to Australia

James Cook University is also one of MAHANAKORN’s international partners within the 2+2 study pathway, where eligible students can begin their degree in Thailand before continuing part of their undergraduate education at a partner university overseas.

Previous collaboration with JCU has included pathways covering engineering fields such as Mechanical Engineering, Civil Engineering and Electrical Engineering.

For students who want an international university experience without starting their entire degree abroad from day one, this creates another way to build a global academic journey step by step.

Why Global Exposure Matters

Studying in a different academic environment can challenge students to adapt to new ways of learning, working and communicating.

That experience can become increasingly valuable as careers themselves become more international.

Engineers may work with teams across countries. Business graduates may manage international markets. Researchers may collaborate across institutions and disciplines.

Global exposure helps students prepare for that reality before graduation.

Where Could Your Degree Take You?

Students interested in combining their studies at MAHANAKORN with an international university experience can explore:

Global Pathways
Discover study pathways designed to connect your degree at MAHANAKORN with partner universities overseas.

Explore Global Pathways →

For students interested in engineering pathways connected with JCU:

Civil Engineering
Build foundations in infrastructure, structures and the systems behind the built environment.

Mechanical Engineering
Explore engineering design, machines, energy and systems that connect theory with real-world applications.

Communication & Electronics Engineering
Develop knowledge in electronics, communication systems and technologies behind an increasingly connected world.

Your degree can begin in Bangkok — and take you much further.

Why Photonic Chips Matter

As AI systems become more powerful, the demand for faster data processing and lower energy consumption continues to grow.

That is where photonic chips are becoming increasingly important.

Instead of relying only on electrical signals, photonic technology uses light to transmit and process information. This can help improve speed, reduce energy use and support applications such as AI, data centers and high-speed communications.

For students interested in future technology, photonics is a good example of how electronics, communication systems, computing and advanced manufacturing are beginning to overlap.

Inside SMART Photonics

During the Netherlands mission, MAHANAKORN joined a visit to SMART Photonics, a leading photonic-chip manufacturer.

The visit provided a closer look at how photonic technologies move from research into production and how specialised manufacturing ecosystems are built around them.

What makes photonic chips especially interesting is their potential role in systems that need to move huge amounts of data quickly and efficiently.

That includes the infrastructure behind:

A Different Path into Advanced Chip Manufacturing

The mission also highlighted a strategic difference between photonic-chip production and traditional semiconductor fabrication.

According to the university’s report, the SMART Photonics model uses an investment scale of around THB 5.6 billion, significantly lower than the capital typically required for a conventional semiconductor fabrication plant.

That difference matters because it suggests another possible route for countries looking to build deeper capabilities in advanced chip technology.

For Thailand, the opportunity is not only about manufacturing.

It is also about developing the engineers, researchers and technical specialists needed to support photonics, semiconductors, AI and advanced electronics.

From Technology to Talent

MAHANAKORN’s role in this area connects with its wider work in semiconductor education, research and workforce development.

The university has been involved in national and international initiatives covering photonics, power electronics, biosensors and Lab-on-Chip technologies, alongside semiconductor talent development and research collaboration.

For students, that means emerging technologies such as photonic chips are not isolated research topics.

They sit inside a much larger ecosystem that combines:

Where Could You Take It Next?

Students interested in the technologies behind photonics and advanced chips can begin building relevant foundations through:

Communication & Electronics Engineering
Develop knowledge in electronics, communication systems, circuits and technologies connected with high-speed communications, sensing and advanced electronic devices.

Explore Communication & Electronics Engineering →

Computer & AI Engineering
Build foundations in computing, artificial intelligence and data — increasingly important across data centers, intelligent systems and advanced digital infrastructure.

Explore Computer & AI Engineering →

Mechanical Engineering
Explore engineering systems, automation and advanced manufacturing technologies that support modern high-tech industries.

Explore Mechanical Engineering →

The technologies powering the future of AI will depend not only on better software, but on better hardware and the people who know how to build it.

Inside a World-Class Semiconductor Research Ecosystem

The semiconductor industry does not grow through technology alone.

It also depends on research institutions, universities, industry and government working together to move ideas from fundamental research into real products and real economic impact.

On 19 June 2026, MAHANAKORN joined a Thai delegation visiting imec in Belgium, one of the world’s leading research centres in microelectronics and semiconductor technology. The visit focused on understanding how imec connects advanced research, technology development and industry collaboration within one innovation ecosystem.

From Research to Real Industry

imec works across areas including microchips, artificial intelligence, advanced electronics, quantum technology and future digital systems, collaborating with technology companies and universities around the world.

During the visit, the delegation studied how imec develops innovation across the full technology journey:

That journey matters because a breakthrough in the laboratory is only the beginning.

For technology to create real impact, it must eventually be engineered, tested, scaled and connected with industries capable of bringing it into the world.

Why the Ecosystem Matters

The visit also included imec’s advanced research infrastructure and laboratories, where semiconductor technologies are developed from early-stage research through to applications connected with industry.

What stands out is not simply the scale of the facilities.

It is the connection between knowledge, people and industry.

Researchers generate new ideas.

Engineers turn them into working technologies.

Universities develop the people who will continue building them.

Industry brings those technologies to scale.

For students preparing for careers in advanced technology, understanding that ecosystem can be just as important as understanding the technology itself.

Building Talent for the Semiconductor Future

MAHANAKORN also presented its role in developing semiconductor talent through its National Semiconductor Training Center, as Thailand works to strengthen its capabilities in advanced electronics and future industries.

The visit created an opportunity to exchange ideas around workforce development, research training and ways universities can connect technical education more closely with global technology ecosystems.

For students, that means engineering education should not stop at theory.

It should help them understand how their skills can connect with research, industry and technologies being developed around the world.

Where Could You Take It Next?

Students interested in semiconductor technology and advanced electronics can begin building relevant foundations through:

Communication & Electronics Engineering
Develop knowledge in electronics, circuits, communication systems and technologies connected with advanced electronics and semiconductor applications.

Explore Communication & Electronics Engineering →

Computer & AI Engineering
Build foundations in computing, artificial intelligence and data — increasingly important across intelligent devices, automation and future semiconductor systems.

Explore Computer & AI Engineering →

Mechanical Engineering
Explore engineering systems, automation and advanced manufacturing technologies that support high-tech industries.

Explore Mechanical Engineering →

The future of semiconductor technology is built by people who can connect research, engineering and industry.

Learning from One of Europe’s Strongest Technology Ecosystems

The semiconductor industry is built on more than advanced machines.

It depends on universities, researchers, engineers, manufacturers and technology companies working as one connected ecosystem.

In June 2026, MAHANAKORN joined Thailand’s national mission to the Netherlands and Belgium to study how that ecosystem operates in Europe, with a particular focus on Brainport Eindhoven, ASML and Eindhoven University of Technology (TU/e).

The mission focused on understanding how world-class research, education and industry can work together to develop both technology and the people behind it.

Inside the Brainport Model

Brainport Eindhoven is known for bringing together technology companies, universities, research organisations and highly skilled talent within one innovation region.

During the mission, the Thai delegation studied the Brainport model and held discussions with ASML and TU/e, two major parts of Europe’s advanced technology ecosystem.

For Thailand, the lesson goes beyond copying a single technology.

The bigger question is how to build an environment where:

That connection is becoming increasingly important as semiconductor and advanced electronics industries continue to expand.

Why Talent Matters as Much as Technology

Advanced semiconductor systems require highly specialised knowledge across electronics, materials, computing, automation and manufacturing.

Thailand’s national strategy therefore places strong emphasis on developing a workforce capable of supporting industries such as chips, AI and future technologies. MAHANAKORN is also one of three Thai universities appointed as a National Semiconductor Training Center, with a role in developing semiconductor and advanced-electronics talent.

That role connects education directly with national technology development.

It means preparing students not only to understand engineering fundamentals, but also to see how those skills fit into a much larger global industry.

From University to Industry Ecosystem

Visits to organisations such as ASML and TU/e provide a clearer view of how technology moves from research into industry.

Universities help develop knowledge and talent.

Research turns ideas into new technologies.

Industry scales those technologies into systems used around the world.

For students, understanding those connections can make engineering feel less abstract.

What begins in a classroom may eventually connect with semiconductor design, automation, advanced manufacturing, artificial intelligence or global technology research.

Where Could You Take It Next?

Students interested in the technologies behind the semiconductor ecosystem can begin building relevant foundations through:

Communication & Electronics Engineering
Develop knowledge in electronics, circuits, communication systems and technologies connected with advanced electronics and semiconductor applications.

Explore Communication & Electronics Engineering →

Computer & AI Engineering
Build foundations in computing, artificial intelligence and data — increasingly important across intelligent systems, automation and advanced technology.

Explore Computer & AI Engineering →

Mechanical Engineering
Explore engineering systems, automation, design and manufacturing technologies that support modern high-tech industries.

Explore Mechanical Engineering →

The semiconductor industry is global. Understanding how its ecosystem works is one step toward becoming part of it.

Building the Talent Behind Future Technology

Semiconductors sit behind many of the technologies shaping modern life — from AI and robotics to smart devices, electric vehicles and advanced communications.

In June 2026, MAHANAKORN was designated by Thailand’s Ministry of Higher Education, Science, Research and Innovation as a key operational unit for collaboration with the University of Twente in the Netherlands, with a focus on semiconductor workforce development, research and innovation.

The partnership is designed to strengthen how Thailand develops the people and research capabilities needed for advanced electronics and future industries.

For MAHANAKORN, that means being part of a larger international ecosystem connecting education, research and industry.

Three Areas of Collaboration

The collaboration focuses on three main areas:

These areas reflect how semiconductor education is evolving.

The industry does not need technical knowledge alone. It needs people who can move between engineering, electronics, computing, research and international collaboration.

Why Semiconductor Talent Matters

Thailand’s semiconductor and advanced electronics workforce plan for 2026–2030 aims to develop approximately 84,900 highly skilled professionals and 1,780 researchers, while demand across smart electronics and robotics is projected to reach as many as 226,000 personnel over the same period.

That scale shows why education and research have become such an important part of the semiconductor conversation.

Building factories and infrastructure is only part of the equation.

The industry also needs engineers, researchers and technical specialists who understand how these systems are designed, developed and improved.

Connecting Students to a Global Research Ecosystem

The University of Twente is internationally active in fields closely connected with semiconductors, electronics and advanced engineering.

Through this partnership, MAHANAKORN is positioned to support more opportunities around student exchange, researcher mobility, collaborative projects and international research networks.

For students, that creates a clearer connection between what they study and the wider technology ecosystem beyond Thailand.

A degree can begin with fundamentals in electronics, AI or engineering systems — and develop toward research, advanced technology and international collaboration.

Where Could You Take It Next?

Students interested in the technologies behind the semiconductor industry can begin building relevant foundations through:

Communication & Electronics Engineering
Explore electronics, communication systems, circuits and technologies connected with advanced electronics and semiconductor applications.

Explore Communication & Electronics Engineering →

Computer & AI Engineering
Build skills in computing, artificial intelligence and data — increasingly important across intelligent devices, automation and future technology systems.

Explore Computer & AI Engineering →

Mechanical Engineering
Develop foundations in engineering systems, automation and advanced manufacturing that connect with modern high-tech industries.

Explore Mechanical Engineering →

The future of semiconductor technology depends on more than chips. It depends on the people who know how to build what comes next.

Your First Week Is About More Than Classes

Starting university means entering a completely new environment.

New classmates.

New routines.

New opportunities.

And, for many international students, possibly a new country and culture as well.

MAHANAKORN CLUB O-WEEK 2026 was created to help students begin that transition by introducing them to the university community before university life becomes only lectures, assignments and deadlines.

The focus is simple: meet people, experience the community and discover what university life can offer beyond the classroom.

Find Your Community

One of the biggest changes when starting university is the number of new people around you.

MAHANAKORN International Club brings together students from different countries and backgrounds, creating opportunities to make friends, exchange cultures and become part of a more internationally connected student community.

O-WEEK activities highlight experiences such as:

These experiences can matter just as much as academics during the first weeks of university.

Having people to talk to, knowing where you belong and feeling comfortable participating can make a new campus feel much smaller very quickly.

University Is Bigger Than the Classroom

A degree may be the reason students come to university.

But it is rarely the only thing they remember.

Clubs, competitions, workshops, sports, cultural activities and friendships can all become part of the experience.

O-WEEK introduces students to that side of university life early.

It gives new students a chance to explore what interests them and discover communities they might not encounter through their academic program alone.

That is especially valuable in an international environment, where students may be learning alongside people with different languages, cultures and ways of thinking.

Building Skills Without Realising It

Student activities are not only about having something to do after class.

They can also develop skills that become useful later.

Joining a club can mean learning how to work with people you have just met.

Organising an activity can require planning and leadership.

Cultural exchange can improve communication and confidence.

Participating in projects and events can push students to step outside familiar routines.

These experiences happen differently from classroom learning, but they can become an important part of how students grow throughout university.

The Beginning of Your MAHANAKORN Experience

The university academic calendar places Orientation Day before the start of instruction for the 2026 academic year, reinforcing the idea that becoming familiar with the community is part of beginning university life.

O-WEEK extends that introduction beyond academic information.

It is about finding people, activities and experiences that can make the years ahead feel like more than simply completing a degree.

Because your university story is not only about what you study.

It is also about what you join, what you try and who you meet along the way.

Where Could You Take It Next?

Students preparing to begin their university journey can explore different ways to study and connect globally at MAHANAKORN.

Foundation Course
Prepare for undergraduate study while building the academic foundations needed for the next stage of university education.

Explore Foundation Course →

Global Pathways
Start your studies at MAHANAKORN and explore opportunities to continue part of your degree with international university partners.

Explore Global Pathways →

Computer & AI Engineering
Build skills in computing, artificial intelligence and data while becoming part of a technology-focused student community.

Explore Computer & AI Engineering →

Digital Marketing
Explore digital strategy, creativity and consumer behaviour in a program shaped by technology and modern business.

Explore Digital Marketing →

Your degree starts with a program. Your university experience starts with the people and opportunities you choose to be part of.

Turning Environmental Data into Better Decisions

Managing water is becoming increasingly complex.

Flooding, drought, changing weather patterns and growing demand for natural resources mean that decision-makers need more than historical records. They need accurate data, connected monitoring systems and models capable of showing how water may behave next.

On 4 March 2026, MAHANAKORN announced a collaboration with Geosphere Environmental Technology Corporation (GETC) focused on developing technologies for water-resource management and disaster-risk reduction.

The collaboration brings together satellite Earth observation, remote sensing, Internet of Things (IoT) technology and advanced hydrological modelling to create a more complete picture of changing environmental conditions.

From Satellites to Sensors

No single technology can explain an entire water system.

Satellite imagery can observe large areas from above.

Ground-based sensors can capture local conditions.

IoT systems can connect monitoring points and continuously transmit information.

Hydrological models can then help researchers understand how water moves through rivers, watersheds and underground systems.

By combining these different sources, the collaboration aims to develop an integrated platform capable of supporting prediction, analysis and more sustainable water management.

Modelling What Happens Next

GETC brings expertise in hydrological modelling through its GETFLOWS platform, which can simulate both surface-water and groundwater movement.

These models can help researchers analyse watershed behaviour, understand changing water conditions and support planning and decision-making.

MAHANAKORN, meanwhile, has experience applying satellite information and ground-based sensor systems to environmental monitoring, water management and disaster surveillance.

Bringing these capabilities together creates an opportunity to move from simply collecting environmental data toward understanding what that data means — and how it can be used before problems become more serious.

Engineering for Real Environmental Challenges

This kind of work shows why modern engineering increasingly crosses traditional academic boundaries.

Water management may involve civil infrastructure, but understanding a changing environment can also require:

The result is a problem that cannot always be solved by one discipline alone.

It requires engineers and researchers who can connect physical infrastructure with digital technologies and environmental information.

Where Could You Take It Next?

Students interested in technology for infrastructure, environmental monitoring and intelligent systems can begin building relevant foundations through:

Civil Engineering
Explore infrastructure, water systems and engineering solutions designed for the environments and communities they serve.

Explore Civil Engineering →

Communication & Electronics Engineering
Develop knowledge in electronics, sensing and communication technologies that help connected monitoring systems collect and transmit information.

Explore Communication & Electronics Engineering →

Computer & AI Engineering
Build foundations in computing, data and artificial intelligence that can help turn large volumes of environmental information into useful insights.

Explore Computer & AI Engineering →

For students who want to take engineering further through advanced research:

Explore Postgraduate Research →

Better decisions begin with better information — and engineering is what connects the data to the real world.

Turning a Global Partnership into Classroom Experience

An international partnership matters most when students can experience its value in their everyday learning.

On 23 February 2026, MAHANAKORN held a university-wide Knowledge Management session focused on ASU Content, helping faculty learn how to access and apply course materials and teaching activities from Arizona State University (ASU) within their own classes.

The initiative is part of a wider effort to bring global academic resources into the MAHANAKORN learning environment rather than leaving international collaboration at the institutional level.

From the 2026 academic year onward, students will begin gaining access to ASU knowledge and teaching approaches across MAHANAKORN courses.

From Access to Application

The faculty development session focused on three practical areas:

The goal is not simply to give lecturers another library of content.

It is to help faculty understand how global academic resources can be integrated meaningfully into existing courses and learning activities.

That distinction matters.

Students benefit most when international content becomes part of how they learn, discuss, solve problems and apply knowledge, rather than something that sits outside the curriculum.

What Powered by ASU Means in Practice

MAHANAKORN’s collaboration with Arizona State University gives the university access to academic resources and learning experiences connected with the ASU–Cintana Alliance. The wider collaboration also includes opportunities around innovation challenges, global experiences and industry-connected learning.

Bringing ASU content into MAHANAKORN courses is one of the clearest ways that partnership becomes tangible for students.

Instead of seeing “Powered by ASU” only as a university partnership, students can begin encountering ideas, learning resources and teaching approaches developed within a global academic network.

Why This Matters for Students

The world students graduate into is increasingly international.

Engineers work across global technology ecosystems. Business graduates operate across markets and cultures. Digital professionals need to understand ideas and practices that develop far beyond one country.

Exposure to international academic content can help students develop a broader perspective while continuing their degree at MAHANAKORN.

It also supports a learning environment where local knowledge can connect with global ideas, industry challenges and emerging technologies.

Where Could You Take It Next?

Students can experience this globally connected learning environment across different areas of study at MAHANAKORN.

Computer & AI Engineering
Build foundations in computing, artificial intelligence and data while learning in an environment increasingly connected with global academic and technology networks.

Explore Computer & AI Engineering →

Digital Marketing
Explore consumer behaviour, digital strategy and modern marketing in a field where global platforms and international perspectives increasingly shape how brands grow.

Explore Digital Marketing →

Management & Digital Entrepreneur
Develop business, leadership and entrepreneurial thinking for an environment shaped by technology, innovation and international opportunity.

Explore Management & Digital Entrepreneur →

Bangkok Learning Center
Explore postgraduate and professional learning pathways in central Bangkok, including programs enhanced with academic content connected to Arizona State University.

Explore Bangkok Learning Center →

A global partnership becomes more meaningful when it changes what happens inside the classroom.

Engineering for the Next Frontier

Space exploration depends on far more than rockets.

It requires communication systems, electronics, sensing, data, control systems and engineering technologies capable of operating far beyond Earth.

On 17 February 2026, MAHANAKORN and the National Astronomical Research Institute of Thailand (NARIT) signed an academic cooperation agreement focused on engineering and deep-space exploration.

The collaboration is designed to strengthen Thailand’s capabilities in space science and technology while creating new opportunities for research, knowledge exchange and advanced technology development.

Connecting Engineering with Space Research

The partnership focuses on several areas that connect directly with future engineering and research:

These areas show how modern space exploration brings multiple engineering disciplines together.

Communication systems must transmit information across enormous distances.

Electronics must operate reliably in demanding environments.

Software and data systems must process information accurately.

Mechanical and control systems must support equipment that may operate far from direct human access.

From National Capability to Global Collaboration

The cooperation with NARIT is also intended to support Thailand’s participation in international space projects and help build a stronger foundation for long-term development in space technology.

That matters because space technology is increasingly connected with industries and applications on Earth.

Satellite systems support communications, environmental monitoring, disaster management, navigation and scientific research.

Deep-space engineering pushes those technologies even further, requiring solutions that can operate under more complex conditions.

For students, it offers a clear example of how engineering knowledge developed in the classroom can eventually connect with research challenges on a much larger scale.

Building the People Behind Space Technology

Advanced technology requires advanced talent.

Part of the collaboration therefore focuses on developing researchers, academics and technical expertise alongside the technologies themselves.

For students interested in engineering, this is an important part of the picture.

The future of space exploration will depend not only on major missions and spacecraft, but on engineers who understand communications, electronics, AI, automation and physical systems well enough to build what those missions require.

Where Could You Take It Next?

Students interested in technologies connected with space engineering can begin building relevant foundations through:

Communication & Electronics Engineering
Develop knowledge in electronics, communication systems and signal technologies that form part of modern satellite and space-communication systems.

Explore Communication & Electronics Engineering →

Computer & AI Engineering
Build foundations in computing, artificial intelligence and data — increasingly important in autonomous systems, scientific analysis and space technology.

Explore Computer & AI Engineering →

Mechanical Engineering
Explore engineering design, mechanics, control and physical systems that support complex technology operating in demanding environments.

Explore Mechanical Engineering →

For students interested in taking their studies further through research:

Explore Postgraduate Research →

Space may be one of engineering’s biggest frontiers, but every mission begins with people who know how to solve difficult problems.

Turning Strategy into Action

Thailand’s semiconductor ambitions depend on more than investment.

They also depend on whether the country can develop enough engineers, researchers and technical specialists with the right skills for the industries being built around them.

On 6 January 2026, MAHANAKORN joined the Thailand Semiconductor Roadmap Co-Design Workshop in Bangkok, bringing together representatives from government, industry, universities and international partners to help turn national semiconductor policy into a practical development plan.

The workshop was designed around one central idea: semiconductor development works best when policy, education and industry needs are planned together.

Connecting Education with Industry Demand

The discussions focused on how Thailand can build the people, infrastructure and innovation systems needed to compete in the global semiconductor industry.

Key areas included:

For MAHANAKORN, this connects directly with its role in translating national technology priorities into curricula, training and career pathways that respond to real industry demand.

Bringing a Global Perspective into the Roadmap

The workshop also included international input from Arizona State University (ASU) and the Semiconductor Industry Association (SIA).

ASU contributed perspectives on co-designing systems that connect policy, curriculum development and workforce preparation with international standards and local needs.

SIA brought insight into global semiconductor trends, changing technologies and the skills the industry is looking for.

That matters because semiconductor education cannot remain static.

As technology changes, universities need to understand not only what students should learn today, but what capabilities employers and research organisations may need several years from now.

Students Inside the Conversation

MAHANAKORN also brought semiconductor scholarship students into the workshop so they could see the industry beyond the classroom.

They were able to hear directly from government, industry and international experts about investment, technology development and future workforce demand.

This kind of exposure gives students a wider view of where their technical education fits.

A semiconductor career may connect with chip design, electronics, AI, automation, manufacturing, research or advanced systems.

Understanding that ecosystem early can help students see more clearly where their own skills might take them.

Building the Talent Behind the Industry

MAHANAKORN’s National Semiconductor Training Center is part of this wider effort to strengthen Thailand’s semiconductor workforce and advanced-electronics capability.

The long-term challenge is not simply to attract semiconductor investment.

It is to make sure Thailand has the people capable of designing, operating, improving and researching the technologies that come with it.

That is where universities become part of the industry’s foundation.

Where Could You Take It Next?

Students interested in semiconductor technology, advanced electronics and intelligent systems can begin building relevant foundations through:

Communication & Electronics Engineering
Develop knowledge in electronics, circuits, communication systems and technologies connected with advanced electronics and semiconductor applications.

Explore Communication & Electronics Engineering →

Computer & AI Engineering
Build foundations in computing, artificial intelligence and data — increasingly important across chip-enabled systems, automation and intelligent technologies.

Explore Computer & AI Engineering →

Mechanical Engineering
Explore engineering systems, automation and manufacturing technologies that support modern high-tech industries.

Explore Mechanical Engineering →

For students interested in taking semiconductor and advanced technology further through research:

Explore Postgraduate Research →

The future of the semiconductor industry will depend on more than technology. It will depend on the people prepared to build it.