Abstract: A self-contained energy storage, distribution, and monitoring device for a vehicle comprises a single enclosed housing mounted within the vehicle. A VDC battery a VDC converter, a 110 VAC power input, a 110 VAC inverter, and a 110 VAC battery charger, and a VDC power input are each disposed within the enclosed housing. A controller is also disposed within the enclosed housing and is operably coupled with the VDC battery, the VDC converter, the 110 VAC power input, the 110 VAC inverter, and the 110 VAC battery charger. The controller is adapted to provide charging and discharging control of the VDC battery, switching of the VDC converter depending on the presence or absence of a 110 VAC power supply, and switching of the 110 VAC inverter and 110 VAC battery charger depending on the presence or absence of a 110 VAC power supply.

Abstract: A method for operating a lock. A wireless command is received from a trusted device in a proximity range of the lock to enable a proximity mode. The proximity range is selectable by a user of the trusted device via an application. The proximity mode is enabled, and while enabled, a command is received to activate or deactivate the lock. The lock is activated or deactivated in response to the received activating or deactivating command.

Abstract: A method for operating a lock. A wireless command is received from a trusted device in a proximity range of the lock to enable a proximity mode. The proximity range is selectable by a user of the trusted device via an application. The proximity mode is enabled, and while enabled, a command is received to activate or deactivate the lock. The lock is activated or deactivated in response to the received activating or deactivating command.

Abstract: A truck cap assembly that selectively covers a truck bed of a truck is provided. The truck cap assembly may include a cap that sets on opposing side walls of the truck; a cap door located on the cap; a latch bar located on the cap; a controller located on the cap door; and a latch release assembly which includes an actuator and a latch arm. The controller is in electrical communication with an actuator that is coupled to a latch arm. A signal from the controller activates the actuator to move the latch arm. The latch arm is releasable from the latch bar to release the cap door.

Abstract: A truck cap assembly that selectively covers a truck bed of a truck is provided. The truck cap assembly may include a cap that sets on opposing side walls of the truck; a cap door located on the cap; a latch bar located on the cap; a controller located on the cap door; and a latch release assembly which includes an actuator and a latch arm. The controller is in electrical communication with an actuator that is coupled to a latch arm. A signal from the controller activates the actuator to move the latch arm. The latch arm is releasable from the latch bar to release the cap door.

Abstract: A method for operating a lock. A wireless command is received from a trusted device in a proximity range of the lock to enable a proximity mode. The proximity range is selectable by a user of the trusted device via an application. The proximity mode is enabled, and while enabled, a command is received to activate or deactivate the lock. The lock is activated or deactivated in response to the received activating or deactivating command.

Abstract: A truck cap assembly that selectively covers a truck bed of a truck is provided. The truck cap assembly may include a cap that sets on opposing side walls of the truck; a cap door located on the cap; a latch bar located on the cap; a controller located on the cap door; and a latch release assembly which includes an actuator and a latch arm. The controller is in electrical communication with an actuator that is coupled to a latch arm. A signal from the controller activates the actuator to move the latch arm. The latch arm is releasable from the latch bar to release the cap door.

Abstract: A truck cap assembly that selectively covers a truck bed of a truck is provided. The truck cap assembly may include a cap that sets on opposing side walls of the truck; a cap door located on the cap; a latch bar located on the cap; a controller located on the cap door; and a latch release assembly which includes a motor and a latch arm. The controller is in electrical communication with a motor actuator that is coupled to a latch arm. A signal from the controller activates the motor to move the latch arm. The latch arm is releasable from the latch bar to release the cap door.

Abstract: A truck cap assembly that selectively covers a truck bed of a truck is provided. The truck cap assembly may include a cap that sets on opposing side walls of the truck; a cap door located on the cap; a latch bar located on the cap; a controller located on the cap door; and a latch release assembly which includes a motor and a latch arm. The controller is in electrical communication with a motor actuator that is coupled to a latch arm. A signal from the controller activates the motor to move the latch arm. The latch arm is releasable from the latch bar to release the cap door.

Abstract: A capacitive sensor associated with a substrate is presented. The electrode includes a self-capacitance; and a processing unit electrically coupled to the electrode and configured to register a first touch signature during a first touch event in response to an object approaching the electrode. The first touch signature occurring over a total time domain (T) between a first time and a second time, between a first substantially constant self-capacitance and a second substantially constant self-capacitance.

Abstract: A capacitive sensor for detecting a stimulus. The capacitive sensor includes first and second electrodes defining a capacitive coupling, and a processing unit electrically coupled to the first and second electrodes to determine the presence of a stimulus based on the rate of change of the capacitive coupling. A substrate is positioned adjacent the first and second electrodes, wherein the stimulus corresponds to the placement of an object against the substrate. The processing unit is operative to determine a time rate of change based on successive measurements of the capacitive coupling and in response to the capacitive coupling being greater than a predetermined reference value.

Abstract: A method for determining a stimulus is provided. The method includes determining a touch condition based on the rate of change of electrode capacitance, measuring a characteristic of the electrode capacitance in response to the touch condition being met, and evaluating the measured characteristic to determine the touch stimulus. The method can improve the ability to determine a touch stimulus over existing methods, including the ability to determine fingerprint and handprint biometrics, for example.

Abstract: A method for determining a stimulus is provided. The method includes determining a touch condition based on the rate of change of electrode capacitance, measuring a characteristic of the electrode capacitance in response to the touch condition being met, and evaluating the measured characteristic to determine the touch stimulus. The method can improve the ability to determine a touch stimulus over existing methods, including the ability to determine fingerprint and handprint biometrics, for example.

Abstract: A method for determining a stimulus is provided. The method includes determining a touch condition based on the rate of change of electrode capacitance, measuring a characteristic of the electrode capacitance in response to the touch condition being met, and evaluating the measured characteristic to determine the touch stimulus. The method can improve the ability to determine a touch stimulus over existing methods, including the ability to determine fingerprint and handprint biometrics, for example.

Abstract: A capacitive sensor for detecting a stimulus. The capacitive sensor includes first and second electrodes defining a capacitive coupling, and a processing unit electrically coupled to the first and second electrodes to determine the presence of a stimulus based on the rate of change of the capacitive coupling. A substrate is positioned adjacent the first and second electrodes, wherein the stimulus corresponds to the placement of an object against the substrate. The processing unit is operative to determine a time rate of change based on successive measurements of the capacitive coupling and in response to the capacitive coupling being greater than a predetermined reference value.

Abstract: A method for determining a stimulus is provided. The method includes determining a touch condition based on the rate of change of electrode capacitance, measuring a characteristic of the electrode capacitance in response to the touch condition being met, and evaluating the measured characteristic to determine the touch stimulus. The method can improve the ability to determine a touch stimulus over existing methods, including the ability to determine fingerprint and handprint biometrics, for example.