Abstract: An electrical-circuit assembly includes an electrical-device and a heat-sink. The heat-sink has a base having a first-surface and a second-surface. The first-surface is in thermal communication with the electrical-device. The heat sink also has a lid having a third-surface and a fourth-surface. The third-surface faces toward the second-surface. The heat sink also has side-walls disposed between the base and the lid extending from the second-surface to the third-surface. The base, the lid, and the side-walls define a cavity. The heat sink also has a porous-structure extending from the second-surface toward the third-surface terminating a portion of the distance between the second-surface and the third-surface thereby defining a void between the porous-structure and the third-surface. The base, the side-walls, and the porous-structure are integrally formed of a common material. The porous-structure is characterized as having a contiguous-porosity network.

Abstract: An electrical-circuit assembly includes an electrical-device and a heat-sink. The heat-sink has a base having a first-surface and a second-surface. The first-surface is in thermal communication with the electrical-device. The heat sink also has a lid having a third-surface and a fourth-surface. The third-surface faces toward the second-surface. The heat sink also has side-walls disposed between the base and the lid extending from the second-surface to the third-surface. The base, the lid, and the side-walls define a cavity. The heat sink also has a porous-structure extending from the second-surface toward the third-surface terminating a portion of the distance between the second-surface and the third-surface thereby defining a void between the porous-structure and the third-surface. The base, the side-walls, and the porous-structure are integrally formed of a common material. The porous-structure is characterized as having a contiguous-porosity network.

Abstract: A ceramic-wound-capacitor includes a first-electrically-conductive-layer, a dielectric-layer, a second-electrically-conductive-layer, and a protective-coating. The dielectric-layer is formed of an antiferroelectric lead-lanthanum-zirconium-titanate. The protective-coating has a thickness of less than ten micrometers (10 ?m) and provides electrical isolation between the first-electrically-conductive-layer and the second-electrically-conductive-layer of the ceramic-wound-capacitor.

Abstract: A vision system in a vehicle and a method for operating the system. The system displays a field of view that is a portion of an image of an area proximate to the vehicle. The system includes an object detection means that provides an indication of an object being present in the area proximate to the vehicle. The field of view is selected at least in part based on the detection of the object, such as directing the field of view toward the object so the vehicle driver can more easily discern the presence of the object in a display.

Abstract: A circuit board assembly having a laminate construction of multiple layers, such as a LTCC ceramic substrate, with conductor lines between adjacent pairs of layers. A heat sink is bonded to a first surface of the substrate, and a cavity is defined by and between the heat sink and the substrate such that a base wall of the cavity is defined by one of the layers with conductor lines thereof being present on the base wall. A surface-mount circuit device is received within the cavity, mounted to the base wall, and electrically connected to the conductor lines on the base wall. The device is received within the cavity such that a surface of the device contacts a surface region of the heat sink. The surface of the device is bonded to the surface region of the heat sink to provide a substantially direct thermal path from the device to the heat sink.

Abstract: An engine knock control system that can be digitally reconfigured to operate in different knock signal processing modes. The system includes a knock detection circuit that processes an incoming knock signal produced by a vibration or pressure sensor on the engine. The circuit includes a plurality of circuit devices that are capable of being interconnected in different circuit topology configurations to thereby process the knock signal in a selected one of a plurality of different modes. The circuit includes hardware and software for forming a selected interconnection configuration of the circuit devices in response to a coded data signal input to the circuit.

Abstract: A power MOSFET switching control for multiple loads requiring current limiting at initial energization comprises at least two MOSFETs connected in series between one of the multiple loads and a power supply. Each MOSFET has a control electrode with a control electrode capacitance. Each control electrode is connected to a single charge pump, powered by the power supply, repeatedly in a pulsed manner to limit average current through its MOSFET. The individual control electrodes are connected to the charge pump alternately in a predetermined order such that no two control electrodes are connected to the charge pump simultaneously. In one mode of operation, the control electrodes and charge pump are connected and disconnected by clocked, multiplexing switch control means at predetermined times. In another mode of operation, only the connections are accomplished at the predetermined times; and the disconnections are in response to control electrode voltage sensing means.