A canoe yoke is provided that includes an elongated member at least a portion of which is covered by a cushioning member. The yoke addresses problems associated with single user transport of a canoe or other watercraft over land. The canoe yoke combines aspects of strength, ease of installation, and ease of storage that are better than other options known to the art.

A canoe yoke is provided that includes an elongated member at least a portion of which is covered by a cushioning member. The yoke addresses problems associated with single user transport of a canoe or other watercraft over land. The canoe yoke combines aspects of strength, ease of installation, and ease of storage that are better than other options known to the art.

The invention concerns a boat (10) comprising a hull (11) that is suitable for being towed on a solid surface and comprises a hitching device (30) comprising a straight drawbar (39) and a hitching mechanism (31), characterised in that the hitching device is movable in translation along an axis parallel to a longitudinal axis of the hull (11) between a stowed position in which the hitching device is more retracted into the hull and a deployed position in which the hitching device extends further out of the hull than when in the stowed position.

The invention concerns a boat (10) comprising a hull (11) that is suitable for being towed on a solid surface and comprises a hitching device (30) comprising a straight drawbar (39) and a hitching mechanism (31), characterised in that the hitching device is movable in translation along an axis parallel to a longitudinal axis of the hull (11) between a stowed position in which the hitching device is more retracted into the hull and a deployed position in which the hitching device extends further out of the hull than when in the stowed position.

A method includes: loading a vehicle onto a connector boat; loading the loaded connector boat onto the semi-submersible ship; transporting the semi-submersible ship having the loaded connector boat stored thereon to a location; taking water ballast onto the semi-submersible ship at the location; floating the loaded connector boat off of the semi-submersible ship; transporting the loaded connector boat to a second location; unloading the vehicle into water; and transporting the vehicle to a third location.

A method includes: loading a vehicle onto a connector boat; loading the loaded connector boat onto the semi-submersible ship; transporting the semi-submersible ship having the loaded connector boat stored thereon to a location; taking water ballast onto the semi-submersible ship at the location; floating the loaded connector boat off of the semi-submersible ship; transporting the loaded connector boat to a second location; unloading the vehicle into water; and transporting the vehicle to a third location.

A method of stowing a boat is disclosed. The boat may include three hull segments, namely a first hull segment, a second hull segment, and a third hull segment. The third hull segment may form the bow of the boat. The method may include separating the third hull segment from the other hull segments. Thereafter, one of the first hull segment and the second hull segment may be pivoted and inverted over onto the other such that the first hull segment and the second hull segment collectively form a clamshell enclosure. The relative sizing of the first, second, and third hull segments may be such that the third hull segment may be stored within an interior volume of the enclosure.

An amphibious vehicle such as a tug boat, comprising a running gear configured to be at least positioned in a deployed position suited to the rolling of the vehicle, and at least one retracted position suited to the navigation of the vehicle. The running gear comprises a fairing element rigidly connected to the running gear, so that the fairing element advantageously serves as an anti-projection device in the deployed position of the running gear. According to one option, the vehicle comprises a semi-rigid shell.

A method of stowing a boat is disclosed. The boat may include three hull segments, namely a first hull segment, a second hull segment, and a third hull segment. The third hull segment may form the bow of the boat. The method may include separating the third hull segment from the other hull segments. Thereafter, one of the first hull segment and the second hull segment may be pivoted and inverted over onto the other such that the first hull segment and the second hull segment collectively form a clamshell enclosure. The relative sizing of the first, second, and third hull segments may be such that the third hull segment may be stored within an interior volume of the enclosure.

A tri-hull fishing kayak includes a platform, an elevated seat, a foot operated paddle, and a triple hull including two side pontoons and one forward central pontoon having a front portion and a rear portion. The front portion, extending centrally from the platform, provides enhanced longitudinal stability. The two side pontoons are of a width and separation to provide enhanced lateral stability. The tri-hull fishing kayak reduces the need to frequently re-position the kayak when there is wind and/or current, thereby minimizing interruptions to fishing. The elevated seat is ergonomic for long-term sitting, and is high enough above the water to facilitate effective pitching and casting underhand, and to permit a steeper viewing angle into the water, thereby making sight fishing easier. The foot-operated paddle can be used to precisely steer the kayak, and therefore frees up the user's hands for fishing. Further, the platform enables fishing while standing.