Abstract: A bracket for coupling an actuator assembly having a first rod and a second rod to a pivotable component of a marine vessel comprises a main body with a first end configured to be pivotally coupled to the first rod and an opposite second end configured to be pivotally coupled to the second rod. The main body pivots about at least one axis to thereby facilitate equal loading of the first rod and the second rod, and a linking member is pivotally coupled to the main body and is configured to be coupled to the pivotable component.

Abstract: A system for a marine vessel includes a peripheral device having an actuator configured to move part of the peripheral device between a retracted position and an extended position. A first serial bus is configured to connect the peripheral device to other peripheral devices. A controller is operatively connected to the actuator and is in signal communication with the first serial bus. A sensor is coupled to the controller via a second serial bus. The controller is configured to activate the actuator to move the part of the peripheral device from the extended position to the retracted position and from the retracted position to the extended position in response to information from the sensor.

Abstract: A seat assembly for a marine vessel includes a base to be connected to a deck of the marine vessel, a seat supported by the base, and an actuator. The actuator adjusts a position of the seat with respect to the base in at least one of the following ways: to translate the seat in a front-back direction with respect to the base, to raise and lower the seat with respect to the base, to tilt the seat at various angles with respect to the base, and to rotate the seat with respect to the base. The seat assembly also includes a controller in signal communication with the actuator, and the controller activates the actuator to adjust the position of the seat with respect to the base to a predetermined position.

Abstract: A ramp bracket for a curtain airbag of a vehicle includes a back wall, at least a first trim pushing portion, and a ramp portion. The back wall extends along a length of the ramp bracket and attaches to the vehicle. The first trim pushing portion longitudinally extends along a first length portion of the length of the ramp bracket, depends from the back wall and has a downwardly or side opening shape. The ramp portion extends along a second length portion of the length of the ramp bracket, also depends from the back wall, and has an upwardly opening shape.

Abstract: A ramp bracket for a curtain airbag of a vehicle includes a back wall, at least a first trim pushing portion, and a ramp portion. The back wall extends along a length of the ramp bracket and attaches to the vehicle. The first trim pushing portion longitudinally extends along a first length portion of the length of the ramp bracket, depends from the back wall and has a downwardly or side opening shape. The ramp portion extends along a second length portion of the length of the ramp bracket, also depends from the back wall, and has an upwardly opening shape.

Abstract: A trolling motor has a steering motor transmitting torque to a steering shaft, which is coupled to a lower propulsion unit such that rotation of the steering shaft rotates the propulsion unit about a steering axis. A controller is in signal communication with the steering motor. A foot pedal in signal communication with the controller has a foot pad pivotable about a pivot axis and sends electrical steering signals to the controller (and thus steering motor) in response to pivoting of the foot pad. A variable resistance device is coupled to the foot pedal and controllable to vary resistance to pivoting of the foot pad about the pivot axis based on a position, velocity, acceleration, and/or jerk of the steering shaft. Additionally or alternatively, the variable resistance device provides haptic feedback to a user via the foot pad to inform the user about information related to the trolling motor system.

Abstract: A mount for a trolling motor pivots the trolling motor between a deployed position and a stowed position. The mount includes a base coupled to a deck of a watercraft and upper and lower arms pivotably coupled to the base. A bracket also couples the upper arm to the lower arm. The mount includes a pivotable latch and an associated latch blocker on the upper or lower arm or the base and a corresponding striker pin configured to engage with the pivotable latch in the deployed and/or stowed position of the trolling motor to lock the upper or lower arm to the base.

Abstract: A seating system for installation on a marine vessel includes a base to be connected to a deck of the marine vessel and a pedestal to be removably installed in an upright position on or in the base. The base includes a built-in first electrical connector to be electrically connected to a power source on the marine vessel. The pedestal includes a second electrical connector designed to mate with the first electrical connector in the base. A base for the seating system and a pedestal for the seating system are also disclosed.

Abstract: A pump system comprises a bilge pump powered by an electric motor and a controller controlling the electric motor. The controller is configured to determine if the pump system is malfunctioning. In response to determining that the pump system is malfunctioning, the controller is configured to control the electric motor according to a predetermined routine configured to rectify the malfunction. A pump system comprises a first bilge pump including a first electric motor configured to power the first bilge pump and a first controller controlling the first electric motor and a second bilge pump including a second electric motor configured to power the second bilge pump and a second controller controlling the second electric motor. The first and second controllers are in signal communication with one another.

Abstract: A pump system comprises a bilge pump powered by an electric motor and a controller controlling the electric motor. The controller is configured to determine if the pump system is malfunctioning. In response to determining that the pump system is malfunctioning, the controller is configured to control the electric motor according to a predetermined routine configured to rectify the malfunction. A pump system comprises a first bilge pump including a first electric motor configured to power the first bilge pump and a first controller controlling the first electric motor and a second bilge pump including a second electric motor configured to power the second bilge pump and a second controller controlling the second electric motor. The first and second controllers are in signal communication with one another.

Abstract: A system for a marine vessel includes a first peripheral device including a controller, and a second peripheral device. A first serial bus connects the controller to the second peripheral device. At least one sensor is coupled to the controller via a second serial bus. The first peripheral device's controller can do one or more of the following: automatically control switches in the first peripheral device in response to information from the sensor; stage the first peripheral device upon start-up of the system; diagnose a malfunction of the first peripheral device and control the second peripheral device in response to determining that the first peripheral device is malfunctioning; and/or report a status of the first peripheral device over the serial bus.

Abstract: A system for a marine vessel includes a peripheral device having an actuator configured to move part of the peripheral device between a retracted position and an extended position. A first serial bus is configured to connect the peripheral device to other peripheral devices. A controller is operatively connected to the actuator and is in signal communication with the first serial bus. A sensor is coupled to the controller via a second serial bus. The controller is configured to activate the actuator to move the part of the peripheral device from the extended position to the retracted position and from the retracted position to the extended position in response to information from the sensor.

Abstract: A trolling motor has a steering motor transmitting torque to a steering shaft, which is coupled to a lower propulsion unit such that rotation of the steering shaft rotates the propulsion unit about a steering axis. A controller is in signal communication with the steering motor. A foot pedal in signal communication with the controller has a foot pad pivotable about a pivot axis and sends electrical steering signals to the controller (and thus steering motor) in response to pivoting of the foot pad. A variable resistance device is coupled to the foot pedal and controllable to vary resistance to pivoting of the foot pad about the pivot axis based on a position, velocity, acceleration, and/or jerk of the steering shaft. Additionally or alternatively, the variable resistance device provides haptic feedback to a user via the foot pad to inform the user about information related to the trolling motor system.

Abstract: A method of providing gameplay experiences for users includes communicating with a plurality of game clients via a network, where each of the game clients is running a game application. The method further includes identifying a plurality of users of the game applications on the game clients, assigning each of the users to a team in a game instance, and assigning the users to one of a plurality of squads on the team. The method continues by initiating an activity mode in the game instance, where the activity mode includes assigning a different activity to each of the squads and tracking progress toward completion of each activity by users of the assigned squad. Upon satisfaction of the completion criteria of the activity mode, the method ends the activity mode and initiates an objective mode. The objective mode includes assigning an objective to the team.

Abstract: A mount for a trolling motor pivots the trolling motor between a deployed position and a stowed position. The mount includes a base coupled to a deck of a watercraft and upper and lower arms pivotably coupled to the base. A bracket also couples the upper arm to the lower arm. The mount includes one of the following: (1) a deployed-position latch coupled to the upper arm or the base and a corresponding deployed-position striker pin configured to engage with the deployed-position latch in the deployed position of the trolling motor to lock the upper arm to the base; or (2) a pivotable latch and an associated latch blocker on the upper or lower arm or the base and a corresponding striker pin configured to engage with the pivotable latch in the deployed and/or stowed position of the trolling motor to lock the upper or lower arm to the base.

Abstract: A trolling motor includes a head unit, a propulsion unit, and a shaft coupling the head unit to the propulsion unit. A shaft support couples the shaft to a mount base, which may be coupled to watercraft's deck. The shaft support is pivotable with respect to the mount base to move the trolling motor between a deployed position and a stowed position with respect to the deck. The trolling motor further includes a spring and damper combination coupled between the mount base and the shaft support, wherein a spring portion of the spring and damper combination provides a spring force to assist in pivoting the shaft support away from the deck, and a damper portion of the spring and damper combination provides a damping force to slow pivoting of the shaft support towards the deck and/or a metal-reinforced, self-lubricating bearing pivotably coupling the shaft support to the mount base.

Abstract: Systems and methods are provided to improve the reliability of energy networks during an activation and deactivation under load and the measurement of energy consumption. An example method for operating an energy network which has multiple junction boxes includes: opening an electronic switch of a junction box using an analysis unit of the junction box; waiting for a defined period of time; measuring the potential at an output of the electronic switch using the analysis program and a corresponding voltage measuring device; comparing the measured potential U with a specified value; setting a release parameter dependent on the measured potential falling below the specified value; and opening a mechanical isolator dependent on the release parameter.

Abstract: A trolling motor system for a watercraft includes a trolling motor assembly coupled to the watercraft. A foot pedal is mechanically coupled to the trolling motor assembly such that mechanical inputs to the foot pedal cause movement of a moveable component of the trolling motor assembly. A steering motor is configured to steer the trolling motor assembly. The movement of the moveable component of the trolling motor assembly generates electrical inputs to the steering motor, thereby activating the steering motor to steer the trolling motor assembly.

Abstract: A trolling motor assembly includes a main housing holding an electric motor. A propeller is attached to a propeller shaft that is driven by the electric motor and projects from a rear end of the main housing. A steering shaft is configured to couple the main housing to a watercraft. A nosecone is coupled to the main housing at the front end of the main housing. The nosecone is removable from the front end of the main housing. The main housing is watertight when the nosecone is removed therefrom.

Abstract: A head restraint assembly for a seat, the assembly including: At least one support for mounting a bun assembly above the seat back; a bun assembly including a core portion, the core portion having integral first bearing surfaces; a stationary hub mounted on the at least one support, the stationary hub disposed at least substantially within the core portion and pivotally supporting the core portion via the integral first bearing surfaces; and a lock pivotally supported within the core portion. The lock is selectively pivotally moveable between positions of engagement with, and disengagement from, the stationary hub. The position of engagement is characterized in that the core portion is fixed relative to the stationary hub and at least one support, and the position of disengagement is characterized in that the core portion is pivotally moveable relative to the stationary hub and at least one support.