Abstract: A battery box includes a housing defining an interior of the battery box, a ledge projecting into the interior of the battery box, and a box electrical connector installed on the ledge. The interior of the battery box is configured to receive a battery therein. The battery has a projecting portion sized and shaped to abut the ledge when the battery is installed in the battery box. A battery electrical connector on the projecting portion of the battery mates with the box electrical connector upon installation of the battery in the battery box.

Abstract: A method and system for controlling a marine vessel is configured to operate a lanyard system to detect at least one fob worn by an individual present on the marine vessel and determine that a missing fob of the at least one fob is no longer detected, wherein the missing fob is either an operator fob or a passenger fob. A man overboard event is generated based on the missing fob, wherein the man overboard event is an operator overboard event if the missing fob includes the operator fob or a passenger overboard event if the missing fob is the passenger fob. One or more search assistance functions are automatically activated based on the man overboard event, wherein the search assistance functions activated depend on whether the man overboard event is the operator overboard event or the passenger overboard event.

Abstract: A method for controlling a marine propulsion device to have sufficient power available within a power system to meet demands, the marine propulsion device having an engine rotatably engaged with a transmission via a clutch. The method includes measuring the power available within the power system and measuring the demand for power on the power system. The method further includes determining a power difference between the demand and the power available within the power system, and comparing the power difference to a minimum threshold. The method further includes increasing a speed of the engine and increasing a slip of the clutch when the power difference is exceeds the minimum threshold.

Abstract: An outboard motor has a powerhead that causes rotation of a driveshaft, a steering housing located below the powerhead, wherein the driveshaft extends from the powerhead into the steering housing; and a lower gearcase located below the steering housing and supporting a propeller shaft that is coupled to the driveshaft so that rotation of the driveshaft causes rotation of the propeller shaft. The lower gearcase is steerable about a steering axis with respect to the steering housing and powerhead.

Abstract: A marine vessel including a hull extending horizontally from a bow to a stern with a midpoint therebetween. The hull has opposing walls that extend upwardly, where the opposing walls have inner sides that face inwardly toward each other and outer sides that face outwardly. A first of the outer sides defines a first opening therein that is horizontally closer to the midpoint than to the stern and horizontally closer to the midpoint than to the bow. An engine compartment is configured for positioning an engine therein. A first conduit fluidly couples the first opening and the engine compartment for at least one of ventilating and exhausting the engine compartment. The first opening is positioned to prevent water from entering the first conduit.

Abstract: A system for tracking assets having tags using a moving device. The system includes a tag reader having a range and being located on the moving device. The tag reader is configured to read asset data from each of the tags within the range of the tag reader. A location tracker detects a geographic location of the moving device and asset locations are determined for the assets based on the geographic location detected. A wireless transmitter is located on the moving device. The wireless transmitter communicates the asset data and the asset locations for each of the tags read by the tag reader. A computing system receives the asset data and the asset locations and maintains a database of the asset data and the asset locations for the assets.

Abstract: A blown air heating system has a housing having an upstream air inlet and a downstream air outlet and a forced-air device configured to draw air into the housing via the air inlet and force the air out of the housing via the air outlet, wherein the air follows an airflow path from the air inlet to the air outlet. A gas burner is configured to heat the air as it passes through the housing. A gas valve is configured to provide a fuel gas to the gas burner, and the gas valve is located between the air inlet and the air outlet and in the airflow path. A baffle is in the airflow path, and the baffle is configured to divert the flow of air away from at least part of the gas valve.

Abstract: A device for coupling a propulsor to a marine vessel. A rail is configured for attachment to the marine vessel. A carriage is moveable relative to the rail into first and second positions. A shaft has a first end pivotally coupled to the marine vessel and a second end for coupling to the propulsor. An actuator is configured to pivot the shaft relative to the marine vessel to thereby move the propulsor into and between stowed and deployed positions. A lock is manually operable to fix the carriage in the first position in which the actuator prevents manual pivoting of the shaft and alternatively in the second position in which the shaft is permitted to be manually pivoted.

Abstract: A transportable outboard motor has a tiller which is pivotable about a lateral tilt axis into a plurality of tilt positions and also pivotable about an axial yaw axis into a plurality of yaw positions. The tiller is pivotable about the axial yaw axis into a straight-ahead position, into a port yaw position which is oriented towards the port side relative to the straight-ahead position, and into a starboard yaw position which is oriented towards the starboard side relative to the straight-ahead position. The tiller is pivotable downwardly about the lateral tilt axis from the port yaw position, and downwardly about the lateral tilt axis from the starboard yaw position. Pivoting the tiller into the plurality of yaw positions creates space for a user to manually grasp a swivel tube and thereby lift the transportable outboard motor from a rear-laydown position.

Abstract: A stern drive is for propelling a marine vessel in a body of water. The stern drive has a powerhead, a mounting assembly configured to affix the powerhead to the transom, inside the marine vessel, and a drive assembly coupled to the mounting assembly, the drive assembly being trimmable up and down relative to the mounting assembly, the drive assembly comprising a driveshaft and an output shaft which extends transversely to the driveshaft. The drive assembly has a driveshaft housing for the driveshaft and a gearcase housing for the output shaft, wherein the gearcase housing is steerable relative to the driveshaft housing. A universal joint couples the powerhead to the driveshaft so that operation of the powerhead causes rotation of the driveshaft, which in turn causes rotation of the output shaft.

Abstract: A transportable outboard motor has a midsection and a tiller extending forwardly from the midsection. The tiller is pivotable about a lateral tilt axis into a downward tilt position in which the tiller is oriented transversely to the lateral and longitudinal directions. The tiller in the downward tilt position is configured to permit manual carrying of the transportable outboard motor.

Abstract: A device for coupling a propulsor to a marine vessel. The device includes a mounting bracket configured for attachment to the marine vessel. A support frame has a carriage and is configured for the propulsor to be coupled thereto, where the carriage is configured to slidably engage with the mounting bracket into a fixed position. A member is manually engageable to prevent the carriage from sliding out of the fixed position. The propulsor is coupled to the marine vessel by sliding the carriage into the fixed position and engaging the member, where the propulsor is operable to propel the marine vessel in water when the carriage is in the fixed position, and where the propulsor is configured for decoupling from the marine vessel by disengaging the member and sliding the carriage out of engagement with the mounting bracket.

Abstract: A system for steering marine propulsion devices. Steering actuators are configured to change steering angles of the marine propulsion devices. A control system is operatively connected to the steering actuators. The control system is configured to receive a steering request for steering a first device among the marine propulsion devices, compare a steering angle of the first device to a steering angle of a second device among the marine propulsion devices, and control the steering actuators to steer the first device only when the steering angle of the first device is within a threshold range of the steering angle of the second device.