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Kronemeijer, A.J. (author), de Haas, G. (author), Verbeek, R. (author), Bel, T. (author), van de Laar, R. (author), Ugalde-Lopez, L. (author), Gelinck, G. (author)This paper presents a monolithic manufacturing process to realize active-matrix meshed TFT arrays on foil with physical voids between pixels, realizing membrane-like structures for use in biometrics-under-display applications. Moreover, however, the concept enables new applications in the biomedical electronics domain.conference paper 2021
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van Rossum, W.L. (author), Nennie, F. (author), Deiana, D. (author), van der Veen, A.J. (author), Monni, S. (author)The electrical properties of tissues samples are required for investigation and simulation purposes in biomedical applications of EM sensors. While available open literature mostly deals with ex-vivo characterization of isolated tissues, knowledge on dielectric properties of these tissues in their original environment is essential for an...conference paper 2014
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Sillekens, W.H. (author), Bormann, D. (author)This chapter deals with the emerging field of biomedical applications for magnesium-based materials, envisioning degradable implants that dissolve in the human body after having cured a particular medical condition. After outlining the background of this interest, some major aspects concerning degradable implants in general and magnesium...bookPart 2012
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Erinc, M. (author), Zhang, X. (author), Sillekens, W.H. (author), TNO Industrie en Techniek (author)Magnesium and its alloys are light weight, biodegradable materials. They can be used as metal implants which maintain strength and integrity for the time of recovery, followed by natural dissolution in the body preventing the necessity of implant removal. In addition to the general biocompatibility and biodegradability requirements, these...conference paper 2010