The BIOTEX project aims at developing dedicated biochemical-sensing techniques compatible with integration into textile. The consortium includes two research institutes in the field of micro and nanotechnology.
CSEM's expertise in nanotechnology focuses on characterization, optics, microscopy, and surface engineering. The combination of these technologies with other ones such as microfluidics, microsystems, photonic optics and micro-optics makes CSEM able to integrate successfully nanotechnology to novel products.
Research in the Diederich group at ETH Zurich is structured around four central themes: Molecular recognition in chemistry and biology; Modern medicinal chemistry: molecular recognition studies with biological receptors and X-ray structure-based design of nonpeptidic enzyme inhibitors; Supramolecular nanosystems and nano-patterned surfaces; Advanced materials based on carbon-rich acetylenic molecular architecture.
The lab investigates mechanical materials properties from the nano to macro-scale using experimental, analytical, and computational techniques. Current cutting edge research within European projects and the ETH competence center on high temperature materials focuses on micro- and nano- mechanical properties of materials (instrumentation, scale effects related to microstructure and physical dimension.
eNanoMapper (ENM) proposes a computational infrastructure for toxicological data management of engineered nanomaterials based on open standards, ontologies and an interoperable design to enable a more effective, integrated approach to European research in nanotechnology.
The activities of the laboratory aim at a detailed description of photo-induced processes in the molecular condensed phase (liquid, solid and proteins) and in metallic and semiconductor nanostructured materials. A central approach of the group is the visualization in 'real time' of the processes by means of ultrafast laser spectroscopy.
NANOLAB is working on various subjects in the field of silicon micro/nano-electronics with special emphasis on the technology, design and modelling of nanoscale solid-state devices (including Silicon-On-Insulator devices, few-electron devices, hybrid SET/CMOS, single electron memory, nanowires and nanotubes), Radio Frequency MEMS devices for in- and above-IC and integrated optoelectronic devices. The group is interested in exploring new materials, novel fabrication techniques, and novel device concepts for future nanoelectronic systems.
The Nanophotonics & Metrology Laboratory (NAM) at the Swiss Federal Institute of Technology Lausanne (EPFL) covers a broad spectrum, from nanophotonics to plasmonics, near-field optical microscopy to spectroscopy, from optical signal processing for sensing and telecommunications to speckle and holographic interferometry.
The Sensors, Actuators and Microsystems Laboratory was created in 1982 by professor Nico F. de Rooij. Since then, SAMLAB has increased in size and has reached a staff of about 50 persons, including 15 PhD students.
FriMat combines a leading fundamental research program on soft condensed matter and solid state physics with an innovative approach to synthesize novel compounds in order to create and study advanced materials. FriMat is determined to not only focus on the creation of novel materials and promote nanotechnology, but investigates into potential risks associated with nanoparticles, and develops new tools essential in any attempt to sample and characterize nanoparticles in the environment.
The Friedrich Miescher Institute is devoted to fundamental biomedical research. As part of the Novartis Research Foundation and one of the institutes of Novartis Corporate Research, the institute's goal is to exploit new technologies to further the understanding of the basic molecular mechanisms of cells and organisms in health and disease.
The Binnig and Rohrer Nanotechnology Center is a unique facility for exploratory research. It is not a production or a pilot line with fixed processes or wafer sizes. Rather, it is a state-of-the-art exploratory cleanroom fabrication facility combined with 'noise-free' labs shielded against external vibrations, acoustic noise, electromagnetic fields and temperature fluctuations.
Current work encompasses novel applications of scanning probe methods; the construction of functional devices such as transistors out of nature's fundamental building blocks. Increasing efforts have been dedicated to the development of sensors for chemical and biological interactions, stress, magnetization, etc.