The BIOS Lab-on-a-Chip group (BIOS) is involved in research and development of miniaturized systems for biomedical and environmental applications in so-called “Lab-on-a-Chip (LOC)” systems. In their vision, there will be an increasing convergence of micro- and nanotechnologies with physics, chemistry and life sciences to improve the quality of life.
The research of the BIOS group is organized along 4 tracks: (i) micro/nano-fluidics, (ii) electrochemical systems, (iii) micro- and nano-devices for chemical analysis (iv) biomedical micro-devices. The electrochemical systems track, managed by Olthuis, focuses at electrochemical measurements at small scales. For each of these four tracks, intense collaboration exists with partners from within or outside of the MESA+ Institute. The BIOS group is a worldwide pioneer in ISFET research, with in-house expertise for manufacturing, measuring and theoretical understanding.
MESA+, Institute for Nanotechnology, is part of the University of Twente, having intensive cooperation with various research groups within the University. The institute employs 500 people of which 275 are PhDs or postdocs. With its NanoLab facilities the institute holds 1250 m2 of cleanroom space and state of the art research equipment. MESA+ has an integral turnover of 45 million euro per year of which 60% is acquired in competition from external sources. MESA+ has been the breeding place for more than 40 high-tech start-ups to date.
The University of Twente stands for life sciences and technology. High tech and human touch. Education and research that matter. New technology which leads change, innovation and progress in society. The University of Twente is the only campus university of the Netherlands; divided over five faculties we provide more than fifty educational programmes. We have a strong focus on personal development and talented researchers are given scope for carrying out groundbreaking research.
It is our task to develop a label-free (Fin)FET sensor. We will fabricate and characterize the FinFET sensor. Optionally, we may start by fabricating and testing junctionless 2D FET sensors. Their characteristics can possibly be improved by modifying the gate oxide with nanorods. Additionally, after validation, we will develop multiplexing of the (Fin)FETs and subsequently fabricate the multiplexed sensor chips resulting in a prototype to be validated in laboratory-relevant conditions.