Abstract: A micromechanical system is described having a substrate; a first micromechanical functional area, which is situated above the substrate; a second micromechanical functional area, which is situated above the first micromechanical functional area and is connected via a first weblike anchoring structure to the first micromechanical functional area; a third micromechanical functional area, which is situated above the second micromechanical functional area, and which has a first subarea and a second subarea; the first subarea being connected via a second weblike anchoring structure to the second micromechanical functional area; and the second subarea being mounted floating over the substrate by the first subarea. The invention also provides a method for manufacturing such a micromechanical system.

Abstract: A capacitive micromechanical acceleration sensor has a substrate and a micromechanical functional layer situated above the substrate. A seismic mass, a suspension and fixed electrodes are situated in the micromechanical functional layer. The fixed electrodes are electrically connected to one another on a first and second side, respectively, of the suspension using buried conductor tracks. The fixed electrodes are connected to one another between the first and second side of the suspension using first and second conductors in the micromechanical functional layer.

Abstract: A micromechanical structure which includes a substrate having a main plane of extension, and a seismic mass which is movable relative to the substrate. The micromechanical structure includes a fixed electrode which is connected to the substrate, and a counterelectrode which is connected to the seismic mass. The fixed electrode has a first fixed electrode region and a second fixed electrode region which is connected in an electrically conductive manner to the first fixed electrode region. The counterelectrode is partially situated between the first and the second fixed electrode region, perpendicular to the main plane of extension.

Abstract: A micromechanical structure includes: a substrate; a seismic mass movable relative to the substrate along a first direction parallel to a main plane of extension of the substrate; a first electrode structure is connected to the substrate; and a second electrode structure connected to the substrate. The seismic mass includes a counterelectrode structure having finger electrodes situated between first finger electrodes of the first electrode structure and second finger electrodes of the second electrode structure, along the first direction. The first electrode structure is fastened to the substrate by a first anchoring element in a central region of the micromechanical structure, and the second electrode structure is anchored to the substrate by a second anchoring element situated in the central region.

Abstract: A magnetic field sensor includes a magnetizable core having a curved surface at least sectionally, a magnetization device for magnetizing the core, and a determination device for determining a magnetic field in the core.

Abstract: A micromechanical system is described having a substrate; a first micromechanical functional area, which is situated above the substrate; a second micromechanical functional area, which is situated above the first micromechanical functional area and is connected via a first weblike anchoring structure to the first micromechanical functional area; a third micromechanical functional area, which is situated above the second micromechanical functional area, and which has a first subarea and a second subarea; the first subarea being connected via a second weblike anchoring structure to the second micromechanical functional area; and the second subarea being mounted floating over the substrate by the first subarea. The invention also provides a method for manufacturing such a micromechanical system.

Abstract: A capacitive micromechanical acceleration sensor has a substrate and a micromechanical functional layer situated above the substrate. A seismic mass, a suspension and fixed electrodes are situated in the micromechanical functional layer. The fixed electrodes are electrically connected to one another on a first and second side, respectively, of the suspension using buried conductor tracks. The fixed electrodes are connected to one another between the first and second side of the suspension using first and second conductors in the micromechanical functional layer.

Abstract: A micromechanical structure includes: a substrate; a seismic mass movable relative to the substrate along a first direction parallel to a main plane of extension of the substrate; a first electrode structure is connected to the substrate; and a second electrode structure connected to the substrate. The seismic mass includes a counterelectrode structure having finger electrodes situated between first finger electrodes of the first electrode structure and second finger electrodes of the second electrode structure, along the first direction. The first electrode structure is fastened to the substrate by a first anchoring element in a central region of the micromechanical structure, and the second electrode structure is anchored to the substrate by a second anchoring element situated in the central region.

Abstract: A micromechanical structure which includes a substrate having a main plane of extension, and a seismic mass which is movable relative to the substrate. The micromechanical structure includes a fixed electrode which is connected to the substrate, and a counterelectrode which is connected to the seismic mass. The fixed electrode has a first fixed electrode region and a second fixed electrode region which is connected in an electrically conductive manner to the first fixed electrode region. The counterelectrode is partially situated between the first and the second fixed electrode region, perpendicular to the main plane of extension.

Abstract: A micromechanical system includes a substrate, a first conductive layer situated above the substrate and a second conductive layer situated above the first conductive layer. The first conductive layer and the second conductive layer are conductively interconnected by a connecting element. The connecting element has a conductive edge surrounding a nonconductive region.