High Tech Systems

In next-generation high-tech and mechatronic systems, extreme functionalities and performance requirements will be realized by using a model-based multi-physics systems approach. New sensing technologies and actuator designs for multi-physics processes (forces, flows, temperatures, acoustics, optics) will need to be integrated with and used by distributed on-line model-based control and optimization tools. The control systems are adaptive, auto-tuned, are implemented in optimized hardware and software architectures, and use effective (wireless) communication.

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Our Focus Areas

The HTSC has its focus on different areas. HTSC believes these areas will innovate and further development on complex engineering. 


The High Tech Systems Center has the potential to create such a space where universities and companies  co-invest in exploring new ideas and developing new talent for a region that encompasses the Eindhoven-Leuven-Aachen industrial axis.” VDL ETG is involved in various ways with the HTSC. “Not only do we energize the connection between the worlds of research and application, with both gaining a good perspective of each other,” Guustaaf explains, “but we also get an idea of what the pool of talent might hold in terms of future employees.

Guustaaf Savenije, CEO VDL ETG

Meet our team

High Tech Systems Center

At the TU/e High Tech Systems Center (HTSC), the group performs fundamental research and design around new concepts and prototypes, with a focus on understanding the needs of the industry. Using systems design paradigms, such as the V-model and resource budgeting, forms a central part of the program and challenges within HTSC. 

High-tech and mechatronic systems need to meet fast-developing requirements in functionalities and performance requirements. With this in mind, High Tech Systems works according to a model-based multi-physics systems approach (incorporating forces, flows, temperatures, acoustics, optics) with accompanying sensing technologies and actuator designs. These, in turn, need to be integrated with distributed on-line model-based control and optimization tools. Systems need to be adaptive, auto-tuned, implemented in optimized hardware and software architectures, and use effective (wireless) communication.

Next-generation systems will require further integration of different modules, making modeling and control of all physics, including material properties, essential. Systems engineering as a systematic tool for the conception, design and performance prediction of complex equipment also requires further development.


The High Tech Systems Center undertakes strategic collaborations to arrive at breakthrough innovations within the industry.


AMSYSTEMS Center is a joint innovation center for additive manufacturing which focuses predominantly on the development of production equipment for smart, personalized and multi-functional products. The center is founded by Dutch research organization TNO and High Tech Systems Center of Eindhoven University of Technology (TU/e HTSC). TNO and TU/e HTSC have years of experience in additive manufacturing at their disposal and are making the step towards the next generation of integrated production systems. The center undertakes fundamental and applied research programs to arrive at innovations that ultimately make it to the marketplace via the affiliated companies or spin-offs that are created. At AMSYSTEMS Center experts and scientists are working, who understand the emerging 3D-printing industry needs.


TU Eindhoven’s High Tech Systems Center (HTSC) joined forces with TNO in the NOMI (Nano Opto-Mechatronics Instruments) collaboration. Together they will drive technology innovations to develop instruments to image, measure and fabricate devices at the level of individual atoms. NOMI innovations is based on the vision of the future where humanity will solve many of future’s challenges in data, energy and life sciences by a continuous miniaturization in device fabrication down to an atomic scale. The applications include nanometrology and nanomanufacturing for nanoelectronics, bio-medical and scientific explorations.


Together with Wageningen University & Research (WUR) AMSYSTEMS Center, a partnership between TNO Equipment for Additive Manufacturing and TU Eindhoven High Tech Systems Center, started the Digital Food Processing Initiative (DFPI). With the expertise in food from WUR and the expertise in equipment for additive manufacturing from AMSYSTEMS Center this initiative will enable digitally controlled food production innovations. This initiative will collaborate with the food industry to translate ideas more easily to the market. DFPI focuses on five innovation themes: sustainability, personalised food, on-demand food production, new forms and flavours, and new social experiences. 


In the Spotlight

...how robots perceive and understand the intentions of humans...

Researcher in the Spotlight: Margot Neggers

Making mobile robots more explainable and robust in semi-open environments

Researcher in the Spotlight: Hao Liang Chen

Within the FAST project, my topic is localization and navigation for mobile industrial robots.

Researcher in the Spotlight: Bob Hendrikx

My research concerns robust self-localization algorithms for mobile robots.

Researcher in the Spotlight: Liang Li

...the thermally-induced deformation of components will be a major hurdle in the years to come.

Researcher in the Spotlight: Ruben Merks

I’m working on Next Generation Model Reduction Techniques for Complex Systems.

Researcher in the Spotlight: Daming Lou

We approach the concept of eating food from a Mechanical Engineering point of view, believing that this will largely improve the methods of designing food

Researcher in the Spotlight: Nicky Jonkers

My research will help make the step towards multi-material food printing.

Researcher in the Spotlight: Dolf Klomp

I use particle-based numerical methods to simulate dilute gas systems and determine their thermal behavior.

Researcher in the Spotlight: Bijan Goshayeshi

Repetitive and learning motion control in printing systems

Researcher in the Spotlight: Lennart Blanken

Necessarily, we first need to have a complete understanding of the software before we can maintain it

Researcher in the Spotlight: Kousar Aslam

Better software quality means safer and more reliable systems. Good examples are MRI scanners and self-driving vehicles

Researcher in the Spotlight: Thomas Neele

I try to improve the mechanical structure of an interventional X-ray system

Researcher in the Spotlight: Jeffrey van Pinxteren

Together we hope to provide a robust and holistic solution to the problem of developing safe autonomous robots

Researcher in the Spotlight: Rishi Mohan

I identify and control position-dependent mechanical systems

Researcher in the Spotlight: Robin de Rozario

Design, realization and testing of an in-vacuum substrate handling robot

Researcher in the Spotlight: Rick Baade

Plasma assisted contamination control for ultra-clean vacuum systems

Researcher in the Spotlight: Boy van Minderhout

Linear reluctance motor with advanced power electronics converter

Researcher in the Spotlight: Lie Wang

Linear reluctance motor with a soft magnetic track

Researcher in the Spotlight: Samuil Aleksandrov

Advanced identification and control of thermal systems

Researcher in the Spotlight: Enzo Evers

The influence of hygro-thermal behavior

Researcher in the Spotlight: Amritam Das

Model order reduction for parameter-varying systems

Researcher in the Spotlight: Xingang Cao

Synthesizing controllers

Researcher in the Spotlight: Ferdie Reijnen

Deformations of the wafer play a crucial role in the overall performance of the lithography tool

Researcher in the Spotlight: David van den Hurk

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The HTSC Newsletter is a digital newsletter of the TU/e High Tech Systems Center. The newsletter appears 5 times a year.