Combination of marine vessel and outboard motor, wherein at least one outboard motor is attached in a predetermined position to the transom of the marine vessel, the motor being mounted so as to translate according to a path with at least one motion component having an orientation parallel to the direction of the transverse axis of the hull and/or parallel to the transom of said hull and alternatively towards one or the other side of the hull.

Combination of marine vessel and outboard motor, wherein at least one outboard motor is attached in a predetermined position to the transom of the marine vessel, the motor being mounted so as to translate according to a path with at least one motion component having an orientation parallel to the direction of the transverse axis of the hull and/or parallel to the transom of said hull and alternatively towards one or the other side of the hull.

An outboard motor includes an attachment attached to a hull, and a support vertically rotatably connected to the attachment and horizontally rotatably supporting an outboard motor main unit. The support includes an upper support and a lower support. The outboard motor includes a left reinforcement that includes a left upper connector connected to the upper support and a left lower connector connected to the lower support, and a right reinforcement that includes a right upper connector connected to the upper support and a right lower connector connected to the lower support. The left upper connector is located leftward of a left side of the upper support. The right upper connector is located rightward of a right side of the upper support.

A pod system for use with a houseboat assembly is disclosed herein, with the pod system comprising a first pod and a second pod. The first pod and the second pod are configured to be selectively disposed in a pod slot defined by the houseboat assembly. The first pod is generally free of any locomotive capabilities, while the second pod includes a movement element. When the second pod is disposed in the pod slot, the movement element may be actuated from a helm of the houseboat assembly to impart locomotive capabilities to the houseboat assembly. When locomotive capabilities are not desired, the second pod may be replaced by the first pod in the pod slot. Connectors are provided on the houseboat assembly, first pod, and second pod to removably secure the first pod and the second pod in the pod slot as desired.

A pod system for use with a houseboat assembly is disclosed herein, with the pod system comprising a first pod and a second pod. The first pod and the second pod are configured to be selectively disposed in a pod slot defined by the houseboat assembly. The first pod is generally free of any locomotive capabilities, while the second pod includes a movement element. When the second pod is disposed in the pod slot, the movement element may be actuated from a helm of the houseboat assembly to impart locomotive capabilities to the houseboat assembly. When locomotive capabilities are not desired, the second pod may be replaced by the first pod in the pod slot. Connectors are provided on the houseboat assembly, first pod, and second pod to removably secure the first pod and the second pod in the pod slot as desired.

A propulsion system for a vehicle includes a supporting structure and a plurality of propellers carried by the supporting structure. Each propeller is associated to an electric motor with a toroid geometry, having an annular rotor rotatable within an annular stator and defining therewithin a central aperture. The blades of the propeller, which are carried by the rotor, extend to the central aperture.

A propulsion system for a vehicle includes a supporting structure and a plurality of propellers carried by the supporting structure. Each propeller is associated to an electric motor with a toroid geometry, having an annular rotor rotatable within an annular stator and defining therewithin a central aperture. The blades of the propeller, which are carried by the rotor, extend to the central aperture.

An outboard motor performs assist control of assisting rotation of a crankshaft and performs power running rotation speed range expansion control of expanding a power running rotation speed range of a rotary electric machine in a state in which the crankshaft is rotated at a rotation speed within a cranking rotation speed range due to rotation of a rope reel.

A trolling motor mount intended for a larger watercraft having a bow-mounted anchoring system, with the trolling motor mount having a horizontal mounting platform, a vertical extension member, and a shank, with the horizontal mounting platform being suitably configured to attach a standard trolling motor thereto, the shank being suitably configured to attach to the anchoring system of the watercraft in place of the anchor, and the vertical extension member being of sufficient length to allow the trolling motor to properly reach the water when the trolling motor mount is securely attached to the watercraft by the anchoring system.

An outboard motor for a marine vessel application, and related methods of making and operating same, are disclosed herein. In at least one embodiment, the outboard motor includes a horizontal-crankshaft engine in an upper portion of the outboard motor, positioned substantially positioned above a trimming axis of the outboard motor. In at least another embodiment, first, second and third transmission devices are employed to transmit rotational power from the engine to one or more propellers at a lower portion of the outboard motor. In at least a further embodiment, the outboard motor is made to include a rigid interior assembly formed by the engine, multiple transmission devices, and a further structural component. In further embodiments, the outboard motor includes numerous cooling, exhaust, and/or oil system components, as well as other transmission features.