Abstract: Embodiments disclosed herein comprise wiring for a vehicle including a frame rail and a functional element. In one embodiment, the wiring comprises an electrically conductive substance disposed proximate to the frame rail of the vehicle. An electrically insulating foam encompasses the electrically conductive substance. A conductor is ultrasonically welded between the electrically conductive substance and the functional element.

Abstract: An asperity detection apparatus and method wherein asperities are detected over a period of time. The resultant information can be used to characterize the asperities as three dimensional structures and/or with respect to their elastic and/or resilient behaviors or properties over time.

Abstract: An asperity detection apparatus and method wherein asperities are detected over a period of time. The resultant information can be used to characterize the asperities as three dimensional structures and/or with respect to their elastic and/or resilient behaviors or properties over time.

Abstract: A circuit element (such as an asperity sensor circuit (11)) as is formed (21) using semiconductor fabrication processing has a high resistance layer formed (22) thereover. The high resistance layer is preferably formed using semiconductor fabrication processing. The high resistance layer can be comprised of a variety of materials and can assume a wide variety of configurations.

Abstract: A smartcard device 1200 that includes a single embedded IC chip 1222 that includes smart card circuitry that includes a processor device and memory that is shared with a fingerprint capture device (10) that has a plurality of charge storage devices (12), i.e., the shared memory, that couple through conductive surfaces (22) to conductive spheres (21) that are disposed within an epoxy that comprises a fingerprint contact surface (13). When raised portions of an object (26) appropriately contact certain conductive spheres (21), the corresponding charge storage device (12) will discharge through a separate conductive sphere which is connected to a grounded conductive surface. This discharging serves both to simultaneously sense the asperity features of the object and to store that sensed information as well.

Abstract: A fingerprint capture device (10) has a plurality of charge storage devices (12) that couple through conductive surfaces (22) to conductive spheres (21) that are disposed within an epoxy that comprises a fingerprint contact surface (13). When raised portions of an object (26) appropriately contact certain conductive spheres (21), the corresponding charge storage device (12) will discharge. This discharging serves both to simultaneously sense the asperity features of the object and to store that sensed information as well.

Abstract: A smartcard device 1200 that includes a single embedded IC chip 1222 that includes smart card circuitry that includes a processor device and memory that is shared with a fingerprint capture device (10) that has a plurality of charge storage devices (12), i.e., the shared memory, that couple through conductive surfaces (22) to conductive spheres (21) that are disposed within an epoxy that comprises a fingerprint contact surface (13). When raised portions of an object (26) appropriately contact certain conductive spheres (21), the corresponding charge storage device (12) will discharge through a separate conductive sphere which is connected to a grounded conductive surface. This discharging serves both to simultaneously sense the asperity features of the object and to store that sensed information as well.

Abstract: A holder (2; 22; 82) for coating drill with a ceramic coating by a vapor deposition process has a perforated outer wall (4; 24; 84) into which the drills are inserted with their tips projecting. The holder has a hollow interior in which support means locate the inserted drills parallel and with their tips projecting to the same extent. The support means may comprise a correspondingly perforated inner wall (8; 26; 86) and a back wall (10; 28; 88) against which the drills abut, the outer, inner and back walls being parallel to each other. In one configuration, the holder has a hexagonal plan form with alternate outer walls (4) perforated and each with associated inner and back walls (8, 10). The holder is provided with a lid (52) that shields the interior from ingress of the coating material but provides an air passage to assist cooling of the portions of the drills in the holder interior after the coating has been applied.

Abstract: An asperity detection apparatus and method wherein asperities are detected over a period of time. The resultant information can be used to characterize the asperities as three dimensional structures and/or with respect to their elastic and/or resilient behaviors or properties over time.

Abstract: Apparatus for heat treating a cutting tool comprises a furnace and a tool holder within the furnace adapted to receive therein a first portion of the tool, a second portion of the tool projecting from the tool holder, the second portion of the tool being directly exposed to radiant heat from at least one radiant heating element within the furnace with the first portion of the tool being shielded from the radiant heat.

Abstract: Apparatus for heat treating a cutting tool comprises a furnace and a tool holder within the furnace adapted to receive therein a first portion of the tool, a second portion of the tool projecting from the tool holder, the second portion of the tool being directly exposed to radiant heat from at least one radiant heating element within the furnace with the first portion of the tool being shielded from the radiant heat.