We have expertise in conjugating biomolecules to different surfaces for the development of, for example, sensors. Furthermore, we can culture cell lines for organ-on-a-chip devices.
The research group develops and uses various conjugation strategies for attaching biomolecules (DNA, RNA, proteins, antibodies) on various surfaces, such as those in different sensors, and also quantum dots. We are also involved in the development of organ-on-a-chip devices. This involves the culture of various cell types, such as cardiomyocytes or bone-resorbing cells. They are kept alive in microfluidic channels under conditions (fluids, surfaces, flow) such that they behave as in our body. The expertise in molecular biology also comprises drug testing at living cells. Final aim is to develop the chip towards a device that can be used for detecting cardiotoxicity of drugs and other compounds, and as such replace animal testing, that is now used for this purpose. Finally, we have a bacterial culture lab, in which we can test various materials on their antimicrobial properties.
Projects:
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Nano4Crime
Developing nanotechnologies to enhance and improve forensic research in both laboratory settings and on crime scenes. This is done in collaboration with the research group Technologies for Criminal Investigations. This partnership aims to advance the integration of nanotechnology into forensic practices.
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Lab- & Organ-on-a-Chip Technology
This applied, multidisciplinary research is dedicated to developing organ-on-chip and lab-on-chip devices for advanced applications. The work aims to reduce and replace animal testing, promoting ethical alternatives in research. Additionally, it involves designing intervention therapies and personalized medicine solutions to enhance medical treatments. Research projects:
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Functional Surfaces
Structures of surfaces and nanomaterials are controlled at the micro- and nanoscale, with the purpose to provide them with novel functionalities, such as making them suitable for cellular growth, extremely water-repellent or rather hydrophilic, more sustainable, self-cleaning or antimicrobial.
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Circularity
This research line is dedicated to developing new methodologies for recycling electronic components and chips. The goal is to improve efficiency and sustainability in the recycling process, but also to obtain knowledge to be used in the production and assembly of chip-based devices. This involves exploring innovative techniques to extract valuable materials from electronic waste and…
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Molecular Sensing
The research focuses on developing advanced biomolecular sensors and devices for rapid detection of gases, bodily fluids, or other samples at the point of care. The goal is to improve the speed and accuracy of medical diagnostics, especially in urgent scenarios, to aid in faster decision-making.
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More Than Moore
This research line focuses on advancing quantum technology, photonics, and MEMS as part of the “More than Moore” approach. This involves exploring innovative methods and applications that go beyond traditional semiconductor technology. The goal is to drive progress in these cutting-edge fields and develop new solutions with broader impacts. Research projects: