Abstract:
A connector assembly can include a housing, a terminal retainer, and a terminal position assurance member. The terminal retainer can be removably coupled with the housing and define a primary retaining lock for an electrical contact assembly. The terminal retainer can cooperate with the housing to form a compartment that can receive the electrical contact assembly. The compartment can extend along a mating axis of the housing, with a first frontal opening and a rear opening spaced from one another along the mating axis. A portion of the first frontal opening can be elastically deformable such that a size of the first frontal opening is variable. The terminal position assurance member can be removably coupled with the housing to define a secondary retaining lock for the electrical contact assembly. The terminal position assurance member can be positioned to inhibit elastic deformation of the portion of the first frontal opening.
Abstract:
A device 10 for organizing an array of optical fiber cables (14) terminated with fiber optic connectors (20). The device includes a base plate (22) having a plurality of mounting sites (24) configured to receive a like plurality of dust covers (20) for the respective fiber optic connectors (18). Two or more base plates (22) may be stacked through use of stacking spacers (42) to increase the number of mounting sites (24). The device 10 maintains the array of optical fiber cables during manufacture, shipping and handling, eliminating snarling of the individual optical fiber cables (14).
Abstract:
A wire harness retainer assembly can generally include a strap member and a loop retainer. A housing portion can comprise a housing body that defines a receiving portion and a pair of apertures formed therethrough. The loop retainer can have a distal insertion end and form a loop that is configured to loop around a portion of the wire harness. The loop retainer can further comprise a pair of detents. The loop retainer can be configured to be slidably inserted into the receiving portion of the housing portion to an installed position where the detents are received by the pair of apertures. In this regard, the wire harness retainer assembly provides a simple and convenient way to capture the extra length of a wire harness service loop while providing an easily removable connection when service to a specified control module is desired.
Abstract:
A system and method for detecting the presence of a voltage on a ground conductor which is coupled to a protective Earth (PE) terminal associated with a power source. The power source is used to apply a voltage to a device. The system may use a high impedance device coupled across a switch, with the switch being in communication with a portion of the device. A control system may monitor a voltage across the high impedance device and determine if the voltage across the high impedance device exceeds a predetermined threshold. Exceeding the predetermined threshold indicates that an unsafe voltage from the power source is present on the ground conductor. A natural high impedance path between the device and the Earth is used to provide an Earth connection through the device to the Earth during operation of the system.
Abstract:
A wire harness retainer assembly can generally include a strap member and a loop retainer. A housing portion can comprise a housing body that defines a receiving portion and a pair of apertures formed therethrough. The loop retainer can have a distal insertion end and form a loop that is configured to loop around a portion of the wire harness. The loop retainer can further comprise a pair of detents. The loop retainer can be configured to be slidably inserted into the receiving portion of the housing portion to an installed position where the detents are received by the pair of apertures. In this regard, the wire harness retainer assembly provides a simple and convenient way to capture the extra length of a wire harness service loop while providing an easily removable connection when service to a specified control module is desired.
Abstract:
A method for transmitting diagnostic information that can include: selecting a frequency from a plurality of predetermined frequencies based on a first diagnostic condition; selecting a duty cycle from a plurality of predetermined duty cycles based on a second diagnostic condition; and generating a diagnostic signal that is transmitted over a single wire, the diagnostic signal being based on the selected frequency and the selected duty cycle. A system for communicating diagnostic information is also provided.
Abstract:
The present teachings generally include a method of controlling a relay. The method generally includes momentarily initiating a pull-in pulse when an input signal indicates a first state. A sense resistor controller is activated based on the pull-in pulse. A current flow is controlled to bypass a sense resistor and flow to the relay based on the activation of the sense resistor controller. The relay is controlled based on the current flow.
Abstract:
A method of controlling a surge brake mechanism and all lights on a trailer connected to a vehicle that can submerse the trailer to deploy a boat into water. The method generally includes monitoring the vehicle for vehicle conditions that include at least a speed of the vehicle and a direction in which the vehicle is moving. The method waits for user input from within a passenger compartment of the vehicle that is indicative of a desire to disable all of the lights and the surge brake mechanism on the trailer. The method determines a boat launch condition exists when at least one enabling input is detected and determines the boat launch condition does not exist when any disabling input is detected. The method disables the surge brake mechanism and all of the lights on the trailer, when the boat launch condition exists and enables the surge brake mechanism and all of the lights on the trailer, when the boat launch condition does not exist.
Abstract:
A method for controlling a lamp circuit that includes: setting a first voltage threshold and a first time window within a control circuit corresponding to a characteristic of a first lamp type; providing a first signal through the lamp circuit to start a first time interval and create a first test voltage; comparing the first test voltage to the first voltage threshold; and operating a switch to couple an output of the lamp circuit to a source of electrical power if the first test voltage is greater than or equal to the first voltage threshold before the first time interval exceeds the first time window.