Abstract: The disclosure relates to a light propagation time pixel, comprising modulation gates and integration nodes which are arranged on the upper face of a photosensitive semiconductor region. The photosensitive semiconductor region is designed as an N-epitaxy and is delimited laterally and/or at the corners by p-doped vertical p-structures. A buried layer with a p-doping adjoins the lower face of the photosensitive semiconductor region, and the vertical p-structures are in electric contact with the buried layer.

Abstract: The invention relates to a light transit time pixel comprising —at least one modulation gate (GA, GB) which has a photoactive region (FAB) and a storage region (MA, MB), said storage region (MA, MB) having a locally increased n-type doping below the modulation gate (GA, GB) and delimiting the photoactive region (FAB) of the modulation gate (GA, GB), —at least one transfer gate (TXA, TXB) which adjoins the storage region (MA, MB) of the modulation gate (GA, GB), —at least one reading diode (DA, DB) which follows the transfer gate (TXA, TXB), —at least one drain gate (DG) which adjoins one side of the light-sensitive region (FAB) of the modulation gate (GA, GB), and —at least one drain diode (DD) which follows the drain gate (DG).

Abstract: An optical sensor device configured to detect a time of flight of an electromagnetic signal includes a semiconductor substrate having a main surface and a conversion region configured to convert at least a fraction of the electromagnetic signal into photo-generated charge carriers; a first control electrode formed in a trench extending from the main surface into the semiconductor substrate; a second control electrode disposed directly or indirectly on the main surface; a control circuit configured to apply a varying first potential to the first control electrode and to apply a varying second potential to the second control electrode, where the varying second potential has a fixed phase relationship to the first varying potential, to generate electric potential distributions in the conversion region to direct the photo-generated charge carriers; and a readout node arranged in the semiconductor substrate and configured to detect the directed photo-generated charge carriers.

Abstract: The disclosure relates to a light propagation time pixel, comprising modulation gates and integration nodes which are arranged on the upper face of a photosensitive semiconductor region. The photosensitive semiconductor region is designed as an N-epitaxy and is delimited laterally and/or at the corners by p-doped vertical p-structures. A buried layer with a p-doping adjoins the lower face of the photosensitive semiconductor region, and the vertical p-structures are in electric contact with the buried layer.

Abstract: An optical sensor device configured to detect a time of flight of an electromagnetic signal includes a semiconductor substrate having a main surface and a conversion region configured to convert at least a fraction of the electromagnetic signal into photo-generated charge carriers; a first control electrode formed in a trench extending from the main surface into the semiconductor substrate; a second control electrode disposed directly or indirectly on the main surface; a control circuit configured to apply a varying first potential to the first control electrode and to apply a varying second potential to the second control electrode, where the varying second potential has a fixed phase relationship to the first varying potential, to generate electric potential distributions in the conversion region to direct the photo-generated charge carriers; and a readout node arranged in the semiconductor substrate and configured to detect the directed photo-generated charge carriers.

Abstract: An optical sensor device configured to detect a time of flight of an electromagnetic signal includes a semiconductor substrate with a conversion region configured to convert at least a portion of the electromagnetic signal into photo-generated charge carriers. A deep control electrode is formed in a trench extending into the semiconductor substrate. The deep control electrode extends deeper into the semiconductor substrate than a shallow control electrode. A control circuit is configured to apply to the deep control electrode and to the shallow control electrode varying potentials having a fixed phase relationship to each other, to generate electric potential distributions in the conversion region, by which the photo-generated charge carriers in the conversion region are directed. The directed photo-generated charge carriers are detected at at least one readout node.

Abstract: An optical sensor device includes a semiconductor substrate including a conversion region to convert an electromagnetic signal into photo-generated charge carriers, a read-out node configured to read-out a first portion of the photo-generated charge carriers, a control electrode, which is formed in a trench extending into the semiconductor substrate, and a doping region in the semiconductor substrate, where the doping region is adjacent to the trench, where the doping region has a doping type different from the read out node, and where the doping region has a doping concentration so that the doping region remains depleted during operation.

Abstract: An optical sensor device includes a semiconductor substrate comprising a conversion region to convert an electromagnetic signal into photo-generated charge carriers, a read-out node configured to read-out a first portion of the photo-generated charge carriers, a control electrode, which is formed in a trench extending into the semiconductor substrate, and a doping region in the semiconductor substrate, wherein the doping region is adjacent to the trench, and wherein the doping region has a doping type different from the read out node, wherein the doping region has a doping concentration so that the doping region remains depleted during operation.

Abstract: An optical sensor device configured to detect a time of flight of an electromagnetic signal includes a semiconductor substrate with a conversion region configured to convert at least a portion of the electromagnetic signal into photo-generated charge carriers. A deep control electrode is formed in a trench extending into the semiconductor substrate. The deep control electrode extends deeper into the semiconductor substrate than a shallow control electrode. A control circuit is configured to apply to the deep control electrode and to the shallow control electrode varying potentials having a fixed phase relationship to each other, to generate electric potential distributions in the conversion region, by which the photo-generated charge carriers in the conversion region are directed. The directed photo-generated charge carriers are detected at at least one readout node.

Abstract: An apparatus for establishing at least one turn for a magnetic circuit includes: (a) at least one first magnetic element oriented substantially about an axis generally between a first axial position and a second axial position; and (b) at least one second magnetic element coupled with at least one selected first magnetic element of the at least one first magnetic element generally at the second axial position. The at least one second magnetic element establishes at least one return magnetic path from the second axial position generally toward the first axial position. The at least one return magnetic path is generally about the axis.

Abstract: The present invention provides a PWB for attaching electrical components thereto. The PWB includes a stack of insulating layers, conductive layers located between the insulating layers, wherein the conductive layers terminate at an edge of the PWB, and an edge plate interconnect located on the edge. The edge plate interconnect is free of a complementary via and contacts and electrically interconnects the conductive layers. The present invention also provides a method of making the PWB and also provides a power converter implementing the edge plate interconnects.

Abstract: The present invention provides, in one aspect, a printed wiring board (PWB) for attaching electrical components thereto, comprising, multiple PWB insulating layers located between conductive layers, an interconnect edge that intersects the conductive layers, and an electrical device, wherein at least a portion of the electrical device is located along the interconnect edge and electrically connects at least a portion of the conductive layers to each other.