Abstract: Sense mirror circuitry receives a voltage signal having values corresponding to a magnitude of a measured current. Responsive to the values falling within a first predefined range, the sense mirror circuitry outputs a current at a first predefined magnitude that corresponds to the first predefined range. Responsive to the values falling within a second predefined range, the sense mirror circuitry outputs a current at a second predefined magnitude different than the first predefined magnitude and that corresponds to the second predefined range.

Abstract: Systems, apparatus, and related methods for vehicle sensor calibration are disclosed. An example vehicle includes a sensor including an output; sensor interface circuitry including a transistor, the sensor interface circuitry communicatively coupled to the output; and processor circuitry communicatively coupled to the sensor via the sensor interface circuitry. The processor circuitry is to cause the transistor to activate to electrically couple the output to one of (a) a ground potential or (b) a voltage source associated with a voltage different than a voltage corresponding to an output voltage range of the sensor; and cause a code to be transmitted to the sensor. The sensor is to perform a calibration in response to the electrical coupling of the output to ground and receipt of the code.

Abstract: A suspension system includes a vehicle frame component, a suspension component coupled to and movable relative to the vehicle frame component, a flexible sensor, and a rotatable joint. The flexible sensor is elongated between a first end and a second end, and the first end of the flexible sensor is fixed relative to one of the vehicle frame component or the suspension component. The rotatable joint couples the second end of the flexible sensor to the other of the vehicle frame component or the suspension component.

Abstract: A suspension system includes a vehicle frame component, a suspension component coupled to and movable relative to the vehicle frame component, a flexible sensor, and a rotatable joint. The flexible sensor is elongated between a first end and a second end, and the first end of the flexible sensor is fixed relative to one of the vehicle frame component or the suspension component. The rotatable joint couples the second end of the flexible sensor to the other of the vehicle frame component or the suspension component.

Abstract: A damper control system includes a controller configured to estimate a temperature of a damper fluid based on data relating to heat added to and heat removed from the fluid. At least one damper is operatively coupled to the controller, and the controller is configured to control a size of a damper flow path of the at least one damper based on the estimated temperature. Methods relate to controlling at least one damper based on an estimated temperature of a damper fluid.

Abstract: A damper control system includes a controller configured to estimate a temperature of a damper fluid based on data relating to heat added to and heat removed from the fluid. At least one damper is operatively coupled to the controller, and the controller is configured to control a size of a damper flow path of the at least one damper based on the estimated temperature. Methods relate to controlling at least one damper based on an estimated temperature of a damper fluid.

Abstract: A vehicle damper monitoring system of the present disclosure may include at least one height sensor and at least one controller configured to receive signals from the at least one height sensor and generate a notification if the signals indicate that one or more suspension dampers of a vehicle need to be serviced.

Abstract: A vehicle damper monitoring system of the present disclosure may include at least one height sensor and at least one controller configured to receive signals from the at least one height sensor and generate a notification if the signals indicate that one or more suspension dampers of a vehicle need to be serviced.

Abstract: One embodiment of a drive system may include a motor shaft coupled to a gear set in connection between an input shaft and an output shaft. The system may also have a direct current motor selectively holding the motor shaft in a fixed position for engaging the input and output shafts to one another in response to a sudden power loss from a main power supply. The system may further include an auxiliary power supply enabling the direct current motor to provide a resistive torque.

Abstract: One embodiment of a drive system may include a motor shaft coupled to a gear set in connection between an input shaft and an output shaft. The system may also have a direct current motor selectively holding the motor shaft in a fixed position for engaging the input and output shafts to one another in response to a sudden power loss from a main power supply. The system may further include an auxiliary power supply enabling the direct current motor to provide a resistive torque.

Abstract: An arrangement of a flex circuit relay 7 is provided. The flex circuit relay 7 has a first substrate 10. A first connective member 24 is connected on the first substrate 10. A second flexible substrate 20 is provided having a contact portion 30 spaced away from the first substrate 10 in a first position and being spaced adjacent to the first substrate 10 in a second position. A second conductive member 26 is provided on the second substrate 20 for making contact with the first conductive member 24. A piezoelectric actuator 28 is connected with the second substrate 20 to cause the second substrate contact portion 30 to move between the first and second positions.

Abstract: An arrangement of a flex circuit (7) is provided which includes a first substrate (10) with a connected first conductive membrane (16) having a first gap (20). A second substrate (44) with a connected conductive membrane (50) is spaced away from the first substrate (10). At least one of the substrates (10), (44) is flexible. A first surface mounted device (24) with a first end cap termination (36), bridges over the first gap (20). The end cap termination (36) electrically connects with the second conductive membrane (50) to complete an electrical circuit between the first and second conductive membranes (16), (50) when the substrates (10), (44) are displaced toward one another.

Abstract: An arrangement of a flex circuit relay (7) is provided which in a preferred embodiment has a first substrate (16) and a second substrate (40). The substrates (16), (40) have conductive membranes (17), (50) connected thereto. The second substrate (40) has a contact portion (44). Adjacent to contact portion (44) is a ferritic member (48). A coil (22) is provided having wire windings wrapped around a core. The coil (22) provides a magnetic field to cause the second substrate (40) to move between a first position spaced away from the first substrate (16) and a second position spaced adjacent to the first substrate (16) against a flexural force of the second substrate (40).

Abstract: An arrangement of a flex circuit relay 7 is provided. The flex circuit relay 7 has a first substrate 10. A first connective member 24 is connected on the first substrate 10. A second flexible substrate 20 is provided having a contact portion 30 spaced away from the first substrate 10 in a first position and being spaced adjacent to the first substrate 10 in a second position. A second conductive member 26 is provided on the second substrate 20 for making contact with the first conductive member 24. A piezoelectric actuator 28 is connected with the second substrate 20 to cause the second substrate contact portion 30 to move between the first and second positions.

Abstract: An arrangement of a flex circuit relay (7) is provided which in a preferred embodiment has a first substrate (16) and a second substrate (40). The substrates (16), (40) have conductive membranes (17), (50) connected thereto. The second substrate (40) has a contact portion (44). Adjacent to contact portion (44) is a ferritic member (48). A coil (22) is provided having wire windings wrapped around a core. The coil (22) provides a magnetic field to cause the second substrate (40) to move between a first position spaced away from the first substrate (16) and a second position spaced adjacent to the first substrate (16) against a flexural force of the second substrate (40).

Abstract: An arrangement of a flex circuit 7 is provided which includes a first substrate 10 with a connected first conductive membrane 16 having a first gap 20. A second substrate 44 with a connected conductive membrane 50 is spaced away from the first substrate 10. At least one of the substrates 10,44 is flexible. A first surface mounted device 24 with a first end cap 36, bridges over the first gap 20. The end cap 36 electrically connects with the second conductive membrane 50 to complete an electrical circuit between the first and second conductive membranes 16,50 when the substrates 10,44 are displaced toward one another.