Abstract: An imaging device includes an image sensor circuit including a pixel element. The pixel element is configured to receive during a first receiving time interval electromagnetic waves having a first wavelength, and to receive during a subsequent second receiving time interval electromagnetic waves having a second wavelength. The imaging device includes an image processing circuit configured to produce a color image of the object based on a first pixel image data and a second pixel image data. The first pixel image data is based on the electromagnetic waves having the first wavelength received by the pixel element during the first receiving time interval. The second pixel image data is based on the electromagnetic waves having the second wavelength received by the pixel element during the second receiving time interval.

Abstract: A method for manufacturing a semiconductor device in accordance with various embodiments may include: forming an opening in a first region of a semiconductor substrate, the opening having at least one sidewall and a bottom; implanting dopant atoms into the at least one sidewall and the bottom of the opening; configuring at least a portion of a second region of the semiconductor substrate laterally adjacent to the first region as at least one of an amorphous or polycrystalline region; and forming an interconnect over at least one of the first and second regions of the semiconductor substrate.

Abstract: According to various embodiments, a switching device may include: an antenna terminal; a switch including a first switch terminal and a second switch terminal, the first switch terminal coupled to the antenna terminal, the switch including at least one transistor at least one of over or in a silicon region including an oxygen impurity concentration of smaller than about 3×1017 atoms per cm3; and a transceiver terminal coupled to the second switch terminal, wherein the transceiver terminal is at least one of configured to provide a signal received via the antenna terminal or configured to receive a signal to be transmitted via the antenna terminal.

Abstract: Embodiments related to a method of manufacturing of an imager and an imager device are shown and depicted.

Abstract: Embodiments related to controlling of photo-generated charge carriers are described and depicted.

Abstract: Embodiments related to the manufacturing of an imager device and an imager device are disclosed. Embodiments associated with methods of an imager device are also disclosed.

Abstract: A method of forming a wiring level and an electrical isolation associated with the wiring level on a surface of a semiconductor wafer comprises the steps of providing the semiconductor wafer having said surface, forming a plurality of electrically conductive wiring lines upon said surface, each of the wiring lines having a spacing with respect to neighboring one of the wiring lines, depositing a first layer of amorphous carbon upon the wiring lines by means of non-conformal plasma enhanced chemical vapor deposition (PECVD), such that air-filled voids formed below the first layer within the spacings between neighboring wiring lines. Alternatively, OSG (organo-silicon glass) or FSG (fluorine doped silicon glass) may be deposited to yield air-filled voids within the spacings. According to an embodiment, the carbon, OSG or FSG layers are used as an IMD-layer (line-to-line isolation), added by a further layer of a dielectric material, which then serves as an ILD-layer (level-to-level isolation).

Abstract: A method fabricates a semiconductor structure having a plurality of memory cells that are provided in a semiconductor substrate of a first conductivity type and contains a plurality of planar selection transistors and a corresponding plurality of storage capacitors connected thereto. The selection transistors have respective first and second active regions of a second conductivity type. The first active regions are connected to the storage capacitors and the second active regions are connected to respective bit lines, and respective gate stacks, which are provided above the semiconductor substrate in a manner insulated by a gate dielectric. In this case, a single-sided halo doping is effected, and an excessive outdiffusion of the halo doping zones is prevented by introduction of a diffusion-inhibiting species.

Abstract: The present invention provides a fabrication method for a semiconductor structure and a corresponding semiconductor structure.

Abstract: The present invention provides a fabrication method for a semiconductor structure in a substrate, the semiconductor structure having at least two regions that are to be patterned differently. A fabrication of a patterned first region in the substrate, so that the semiconductor structure has a non-patterned second region and the patterned first region, is followed by a deposition of a cover layer that grows over the patterned first region, so that the cover layer above the patterned first region forms a closure, which covers over the patterned first region. This is followed by a fabrication of the patterned second region, the patterned first region remaining protected at least by the closure of the cover layer. The final step effected is a removal of the cover layer above the semiconductor structure, which now has two differently patterned regions.

Abstract: A method of forming a wiring level and an electrical isolation associated with the wiring level on a surface of a semiconductor wafer comprises the steps of providing the semiconductor wafer having said surface, forming a plurality of electrically conductive wiring lines upon said surface, each of the wiring lines having a spacing with respect to neighboring one of the wiring lines, depositing a first layer of amorphous carbon upon the wiring lines by means of non-conformal plasma enhanced chemical vapor deposition (PECVD), such that air-filled voids formed below the first layer within the spacings between neighboring wiring lines. Alternatively, OSG (organo-silicon glass) or FSG (fluorine doped silicon glass) may be deposited to yield air-filled voids within the spacings. According to an embodiment, the carbon, OSG or FSG layers are used as an IMD-layer (line-to-line isolation), added by a further layer of a dielectric material, which then serves as an ILD-layer (level-to-level isolation).

Abstract: A semiconductor structure is fabricated to have a transistor cell region and a connection region. The transistors both of a transistor cell region and of a connection region are coated with a first oxide layer, the layer thickness of the first oxide layer being dimensioned in such a way that a gap region in each case remains present between the adjacent transistors in the transistor cell region. A sacrificial structure is subsequently applied between at least two adjacent transistors of the transistor cell region in the gap region. At least one gap region in each case remains free between two adjacent sacrificial structures. A second oxide layer is applied to the sacrificial structures and the first oxide layer.

Abstract: A method for fabricating an integrated circuit device, an electrically conductive substrate being provided, an insulation layer being deposited on the substrate, the insulation layer being etched in structures, a contact-making layer being deposited on the patterned insulation layer and on the substrate in depressions which have first and second lateral dimensions, the contact-making layer being etched back in such a way that the contact-making layer is preserved in the structures with the depressions which have first lateral dimensions of the order of magnitude of the structure depth of the insulation layer and the contact-making layer is removed in the structures with depressions which have second lateral dimensions significantly greater than the structure depth of the insulation layer.

Abstract: The present invention provides a fabrication method for a semiconductor structure in a substrate, the semiconductor structure having at least two regions that are to be patterned differently. A fabrication of a patterned first region in the substrate, so that the semiconductor structure has a non-patterned second region and the patterned first region, is followed by a deposition of a cover layer that grows over the patterned first region, so that the cover layer above the patterned first region forms a closure, which covers over the patterned first region. This is followed by a fabrication of the patterned second region, the patterned first region remaining protected at least by the closure of the cover layer. The final step effected is a removal of the cover layer above the semiconductor structure, which now has two differently patterned regions.

Abstract: The present invention provides a fabrication method for a semiconductor structure and a corresponding semiconductor structure.

Abstract: A method fabricates a semiconductor structure having a plurality of memory cells that are provided in a semiconductor substrate of a first conductivity type and contains a plurality of planar selection transistors and a corresponding plurality of storage capacitors connected thereto. The selection transistors have respective first and second active regions of a second conductivity type. The first active regions are connected to the storage capacitors and the second active regions are connected to respective bit lines, and respective gate stacks, which are provided above the semiconductor substrate in a manner insulated by a gate dielectric. In this case, a single-sided halo doping is effected, and an excessive outdiffusion of the halo doping zones is prevented by introduction of a diffusion-inhibiting species.

Abstract: A method for fabricating an integrated circuit device, an electrically conductive substrate being provided, an insulation layer being deposited on the substrate, the insulation layer being etched in structures, a contact-making layer being deposited on the patterned insulation layer and on the substrate in depressions which have first and second lateral dimensions, the contact-making layer being etched back in such a way that the contact-making layer is preserved in the structures with the depressions which have first lateral dimensions of the order of magnitude of the structure depth of the insulation layer and the contact-making layer is removed in the structures with depressions which have second lateral dimensions significantly greater than the structure depth of the insulation layer.