Stefano Taschini

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This paper presents two mixed-signal monolithic gas sensor microsystems fabricated in standard 0.8m CMOS technology combined with post-CMOS micromachining to form the microhotplates. The on-chip microhotplates provide very high temperatures (between 200 C and 400 C), which are necessary for the normal operation of metal–oxide sensing layers. The first(More)
Signal degradation and an array size dictated by the number of available interconnects are the two main limitations inherent to standalone microelectrode arrays (MEAs). A new biochip consisting of an array of microelectrodes with fully-integrated analog and digital circuitry realized in an industrial CMOS process addresses these issues. The device is(More)
A monolithic stand-alone gas sensor system is presented, which includes on a single chip an array of three metal oxide-coated micro hot plates with integrated MOS-transistor heaters, as well as a specifically designed digital system architecture. An octagonal-shaped micro hot plate design with MOS-transistor heaters has been adopted for the three gas(More)
A fully integrated gas sensor microsystem is presented, which comprises for the first time a micro hot plate as well as advanced analog and digital circuitry on a single chip. The micro hot plate is coated with a nanocrystalline SnO2 thick film. The sensor chip is produced in an industrial 0.8-microm CMOS process with subsequent micromachining steps. A(More)
We present an automatic method to produce compact equivalent circuit models of spatially inhomogeneous resistors. Local variations in space of the resistivity due to physical interactions such as magnetic fields or mechanical stress are automatically included. The equivalent circuit model is computed using symbolic algebra, such that the functional relation(More)
BACKGROUND AND PURPOSE Normal biometry of the fetal posterior fossa rules out most major anomalies of the cerebellum and vermis. Our aim was to provide new reference data of the fetal vermis in 4 biometric parameters by using 3 imaging modalities, 2D ultrasound, 3D ultrasound, and MR imaging, and to assess the relation among these modalities. MATERIALS(More)
stefano taschini, markus emmenegger, henry baltes and jan g. korvink Physical Electronics Laboratory, Swiss Federal Institute of Technology, Zürich, ETH-Hönggerberg HPT-H6, CH-8093 Zürich, Switzerland (email: {taschini,emmenegger,baltes}Kiqe.phys.ethz.ch) Institute for Microsystem Technology, Albert Ludwig University – Freiburg, D-79085 Freiburg, Germany(More)
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