Future Chips

As a key knowledge institute in the field of chips, equipment and materials and processes in the Netherlands, Eindhoven University of Technology is leading in state-of-the art research in these domains in Eindhoven and the Brainport region. With the vision of enhancing knowledge, education and valorization, TU/e collaborates with key academic and industrial partners to realize the chips of the future. 

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The Future of Chips

TU/e ranks among the very best internationally when it comes to research on the development of new and advanced equipment, initiative chip design processes, and materials. TU/e’s ability to bring these aspects together is renowned in the semiconductor field.

To enable the future digital revolution, we need to design and manufacture chips that can handle the heavily increasing amount of data and attract highly skilled talent, among many other things. These ‘future chips’ could well originate in the Brainport region, one of the most relevant semiconductor ecosystems in the world.

Chips

We at TU/e, belong to the international top in the field of semiconductor research and we are world-leading in chip design. Our expertise on creating chips and our pioneering scientific research on this topic is one of the cornerstones of future heterogenous integration of chips.

We are leading in InP on silicon heterogeneous integration, including InP membrane on silicon technology (IMOS) and micro-transfer printing of InP components/coupons on silicon and silicon nitride PICs. Next to this we are at the forefront of developing multi-chip heterogenous beamsteering antenna systems for 6G wireless communications in which several technologies come together in heterogenous components. 

TU/e is also leading in the research of novel materials (phase change, 1D/2D materials) from both fabrication & characterization and device modeling & simulation. We also invest in research on quantum circuit design on superconducting qubit devices and silicon SET. Furthermore, we develop novel computing paradigms i.e., neuromorphic computing, analog computing and edge computing with merging of AI.

Materials & Processes

We are one of the leading groups in the so-called atomic scale processing segment. This involves the preparation and patterning of extremely thin nanolayers and nanostructures. The methods are mostly atomic layer deposition, atomic layer etching and area-selective deposition.

The materials systems range from oxides, nitrides, metals and sulfides (in particular 2D materials). The methods and materials we work on are key for leading-edge applications in advanced logic, memory, power electronics, integrated photonics and quantum devices.

With our research we link equipment, materials and processes and (leading-edge) applications.

Equipment

TU/e ranks among the very best internationally when it comes to research on the development of new and advanced equipment. Together with our partners we created a common roadmap on equipment in which heterogeneous integration plays an important role.

As a research institute TU/e focusses on technology and methodology to push equipment performance (productivity, accuracy) and to improve cost and engineering efficiency. The expertise of TU/e and our partners involves mechatronics (opto-mechatronics, cryo-mechatronics), control (embedded control, contamination control, e.o.) and methodology expertise like digital twinning, multi-physics modelling and simulation.

International Ecosystem

Within a 200km radius of TU/e we have a unique regional ecosystem which offers a combination of semiconductor equipment manufacturers, OEMs like ASM and ASML and integrated device manufacturers, IDMs like NXP. It also involves a wide range of other innovative companies, organizations regarding lasers, sensors, design, manufacturing and packaging of (photonic) chips. 

This regional ecosystem, including The Brainport region entails many research institutes, start-ups, spin-offs and incubators, like Imec, PITC, HighTechXL and PhontonDelta. Also, in the groundbreaking research of novel materials and quantum circuit design this international ecosystem allows us to push boundaries. 

Now that the world is investing heavily in semicon, it is important that we, - research institutes, governments and industry – ensure that the Brainport region is and remains one of the most relevant semicon ecosystems in the world. 

As a university, we will contribute to this in various ways; by maintaining and strengthening our top position in semicon research, by building a bridge between science and industry, and by training the much-needed talent. Like we have been doing for the last 40 years.

Related news on future chips

Related research centers & research groups

The Future Chips research is co-working with multiple research groups within TU/e to cover the fields:

  • Chips

  • Material & Processes

  • Equipment

Department of Applied Physics

Photonics and Semiconductor Nanophysics

We explore the novel physics and applications emerging from the interaction of light with nanoscale matter.

Department of Electrical Engineering

Electro-Optical Communication

We have a vision of a globe-spanning ubiquitous optical network, a sustainable and reliable communication infrastructure for users and…

Department of Electrical Engineering

Photonic Integration

Provide major contributions to photonic integration and the associated applications with a particular focus on indium phosphide technology.

Department of Applied Physics

Coherence and Quantum Technology

Our central theme is dilute matter at high phase space density. Our goal is exploiting quantum coherence. Our work is both theoretical and…

Department of Mechanical Engineering

Dynamics and Control

Our mission is to perform top-level research and train next-generation students on the topic of understanding and predicting the dynamics of…

Department of Mathematics and Computer Science

Interconnected Resource-aware Intelligent Systems

We at the Interconnected Resource-aware Intelligent Systems cluster address (distributed embedded) systems performance challenges in terms…

Department of Electrical Engineering

Integrated Circuits

The research area of the group is advanced purely-analog and mixed-signal IC design (RF/IF/LF), applied to frontends, especially for…

Department of Applied Physics

Physics of Nanostructures

We explore novel ways of controlling the electron spin and magnetic textures at the nanoscale for a wide range of applications.

Department of Applied Physics

Advanced Nanomaterials & Devices

It is fascinating how material properties at the nanoscale can be radically changed by controlling their dimensionality, size and crystal…

Department of Electrical Engineering

Electrical Energy Systems

Welcome to our group focusing on the future of energy systems, where sustainability and energy intertwine to shape a better world. Our…

Department of Applied Physics

Plasma & Materials Processing

Our scientific objective is to obtain atomic-level understanding of the interaction of plasmas and reactive gases with materials in the…

Department of Electrical Engineering

Electronic Systems

Our goal is to create constructive design trajectories for electronic systems that lead to high-quality, cost-effective systems with…

Our main partners

Some of our main partners we work with.

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