Abstract: A method and device for unlatching a door from a frame, using a keyless door latch system, is provided. In one embodiment, a secondary unlocking component receives a signal and derives power from the signal to provide a power source for the keyless door latch system. A microcontroller generates a control signal and an actuator, in response to receiving the control signal, actuates the secondary unlocking component, which allows an energy source, from an exterior of the door, to be transferred to the keyless door latch system for the unlatching of the door.

Abstract: A method and device for unlatching a door from a frame, using a keyless door latch system, is provided. In one embodiment, a secondary unlocking component receives a signal and derives power from the signal to provide a power source for the keyless door latch system. A microcontroller generates a control signal and an actuator, in response to receiving the control signal, actuates the secondary unlocking component, which allows an energy source, from an exterior of the door, to be transferred to the keyless door latch system for the unlatching of the door.

Abstract: A method and device for unlatching a door from a frame, using a keyless door latch system, is provided. In one embodiment, a secondary unlocking component receives a signal and derives power from the signal to provide a power source for the keyless door latch system. A microcontroller generates a control signal and an actuator, in response to receiving the control signal, actuates the secondary unlocking component, which allows an energy source, from an exterior of the door, to be transferred to the keyless door latch system for the unlatching of the door.

Abstract: A system and method for achieving a one component growable resin system includes a quantity of growable resin and a quantity of growth initiator. The quantity of growable resin is in a final solid state, and the quantity of growth initiator is in an inactive form. A usable initiator portion, that includes a plurality of resin molecules and is from the quantity of growth initiator, contacts a usable resin portion, from the quantity of growable resin. Being in an inactive form, the usable initiator portion is unable to cause resin growth by being physically inactive or by being physically separate from the usable resin portion. The usable initiator portion is activated to initiate a chemical reaction amongst the plurality of molecules. The chemical reaction results with growth in the usable resin portion by increasing the molecular weight of the usable resin portion.

Abstract: A method and device for unlatching a door from a frame, using a keyless door latch system, is provided. In one embodiment, a secondary unlocking component receives a signal and derives power from the signal to provide a power source for the keyless door latch system. A microcontroller generates a control signal and an actuator, in response to receiving the control signal, actuates the secondary unlocking component, which allows an energy source, from an exterior of the door, to be transferred to the keyless door latch system for the unlatching of the door.

Abstract: There is provided an antenna including a substrate comprising two or more regions, one or more conductive components disposed on the substrate, over two or more of the regions; and, wherein the regions are oriented on or relative to different planes and wherein the planes are substantially spaced from one another, and with the conductive components situated on a first one of the planes being operatively magnetically coupled to non-conductive components situated on an other of the planes.

Abstract: A sensor arrangement for a vehicle includes a sensor unit, a cable arrangement, and an elastic cap. The sensor unit has a main support, an electronics part connected to the main support, and a sensor element. The cable arrangement has at least one individual wire, and is configured to electrically contact the electronics part via at least one contact-making member. The main support is an open housing defining at least one insertion opening configured to accommodate the at least one contact-making member and an accommodation pocket configured to at least partially accommodate the electronics part. The elastic cap has a member configured to fasten the sensor unit in the vehicle, is configured to be pushed at least partially over the main support, and closes off the accommodation pocket in a sealed manner.

Abstract: A method is described for joining, in particular adhering, plastic to a substrate. To achieve a strong adhesive effect, in a method task a) a plastic material that encompasses at least one thermally reversibly cleavable polymer is furnished, and in a method task b) the plastic material is brought into contact with the substrate, a portion of the plastic material which is brought into contact with the substrate being heated to a temperature at which the at least one thermally reversibly cleavable polymer of the plastic material becomes thermally cleaved, and re-cooling or being re-cooled while in contact with the substrate. Also described is a plastic/substrate composite manufactured thereby, a polymer, and a polymer use for adhering.

Abstract: A sensor arrangement for a vehicle has a sensor unit and a cable arrangement, wherein the sensor unit comprises a main support and an electronics part which is connected to the main support and has a sensor element, wherein the cable arrangement, which comprises at least one individual wire, can make electrical contact with the electronics part by means of at least one contact-making means. The main support is designed as an open housing which has at least one insertion opening for accommodating the at least one contact-making means and an accommodation pocket for at least partially accommodating the electronics parts, wherein an elastic cap with means for fastening the sensor unit in the vehicle is provided, it being possible for said elastic cap to be pushed at least partially over the main support, and said elastic cap closing off the accommodation pocket in a sealed manner.

Abstract: A system and method for determining characteristics of a trailer being towed by a vehicle. The trailer is coupled to the vehicle using a trailer hitch using at least one intelligent bolt or fastener. The intelligent fastener has structural characteristics similar to those of traditional bolts for fastening a trailer to a vehicle (e.g., shear strength, diameter, etc.), but the intelligent fastener is configured to sense forces at a junction between the trailer and the vehicle. An ESC system receives force readings from the intelligent fastener sensors along with signals from a plurality of other sensors and determines one or more characteristics of the trailer. The ESC system compensates the motion of the vehicle based on the forces sensed at the junction and the characteristics of the trailer.

Abstract: An apparatus for determining an amount of rotation of a rotatable component that rotates with respect to a stationary component. The apparatus includes a cable with a first end fixed to the rotatable component and a second end fixed to the stationary component. The cable, which supports a sensing element, is configured to wind or unwind when the rotatable component rotates with respect to the stationary component. The sensing element extends along a length of the cable and is configured to flex in response to the winding or unwinding of the cable. The sensing element has a resistance that changes in response to flexion of the sensing element. An evaluation circuit is connected to the sensing element and is configured to determine a value having a relation to the resistance and determine the amount of rotation based on the value.

Abstract: A rotation sensor configured to be mounted on a rim of a wheel. The rotation sensor includes a band sized and shaped to fit around the rim of the wheel, a first element mounted on the band that generates a first time-varying electrical signal in response to a rotational movement, a second element mounted on the band that generates a second time-varying electrical signal in response to the rotational movement, a processor mounted on the band that receives the first and second time-varying electrical signals and processes the first and second time-varying electrical signals to determine a rotational speed, and a rechargeable power source that receives the first and second time-varying electrical signals, consumes at least a portion of the first and second time-varying electrical signals to recharge the rechargeable power source, and generates a power signal. The processor is connected to the rechargeable power source to receive the power signal.

Abstract: In an electric circuit whose behavior is changed corresponding to a peripheral environment, an abnormality detection device can surely detect abnormality in the electric circuit even in a state where a value of the peripheral environment cannot be specified. An abnormality detection device according to the present invention detects abnormality in a detection circuit (112) which detects a specific kind of physical quantity. The abnormality detection device includes an abnormality detection part (220a) which changes magnitude of a power source voltage (Vcc?) which is supplied to the detection circuit (112), and detects abnormality in the detection circuit based on an output signal (Vo2) from the detection circuit at a power source voltage (Vc2) after the change.

Abstract: A method of manufacturing a hermetically sealed electrical connection is provided. The method includes providing an electrically conductive wire, surrounding the electrically conductive wire with a metal layer, providing an insulating layer between the metal layer and the electrically conductive wire, and applying a magnetically-induced compressive force to the metal layer such that the metal layer is compressed against the insulating layer and the insulating layer is compressed against the electrically conductive wire to form a hermetic seal between the metal layer and the conductive wire while maintaining the insulating layer therebetween.

Abstract: An apparatus for determining an amount of rotation of a rotatable component that rotates with respect to a stationary component. The apparatus includes a cable with a first end fixed to the rotatable component and a second end fixed to the stationary component. The cable, which supports a sensing element, is configured to wind or unwind when the rotatable component rotates with respect to the stationary component. The sensing element extends along a length of the cable and is configured to flex in response to the winding or unwinding of the cable. The sensing element has a resistance that changes in response to flexion of the sensing element. An evaluation circuit is connected to the sensing element and is configured to determine a value having a relation to the resistance and determine the amount of rotation based on the value.

Abstract: The invention provides a system and method for determining characteristics of a trailer being towed by a vehicle that includes an electronic stability control (“ESC”) system. The trailer is coupled to the vehicle using a trailer hitch. The hitch is configured to fasten the trailer to the vehicle using at least one intelligent bolt or fastener. The intelligent fastener has structural characteristics similar to those of traditional bolts for fastening a trailer to a vehicle (e.g., shear strength, diameter, etc.), but the intelligent fastener is configured to sense forces at a junction between the trailer and the vehicle. The ESC system receives force readings from the intelligent fastener sensors and uses them in conjunction with signals from a plurality of other sensors connected to the ESC system to determine one or more characteristics of the trailer. The characteristics of the trailer include a trailer weight, a trailer sway, and a trailer center of gravity.

Abstract: A rotation sensor configured to be mounted on a rim of a wheel. The rotation sensor includes a band sized and shaped to fit around the rim of the wheel, a first element mounted on the band that generates a first time-varying electrical signal in response to a rotational movement, a second element mounted on the band that generates a second time-varying electrical signal in response to the rotational movement, a processor mounted on the band that receives the first and second time-varying electrical signals and processes the first and second time-varying electrical signals to determine a rotational speed, and a rechargeable power source that receives the first and second time-varying electrical signals, consumes at least a portion of the first and second time-varying electrical signals to recharge the rechargeable power source, and generates a power signal. The processor is connected to the rechargeable power source to receive the power signal.

Abstract: A method of manufacturing a hermetically sealed electrical connection is provided. The method includes providing an electrically conductive wire, surrounding the electrically conductive wire with a metal layer, providing an insulating layer between the metal layer and the electrically conductive wire, and applying a magnetically-induced compressive force to the metal layer such that the metal layer is compressed against the insulating layer and the insulating layer is compressed against the electrically conductive wire to form a hermetic seal between the metal layer and the conductive wire while maintaining the insulating layer therebetween.