Brunswick Corporation

Polaris Industries Inc.

Fell Marine Inc.

Walter B Ross

Steven J Gonring

Mark W Henker

Christian Frost Røine

Fredrik Eriksen

Jason S Arbuckle

Thomas S Kirchhoff

Michael J Lemancik

Steven L Van Camp

Benoit J Renaud

Robert M Hackbarth

Brian M Rupp

Robert J Wachs, Jr

Benjamin D Duke

A system for orienting a marine vessel is provided. The system includes marine propulsion devices, a gyroscopic stabilizer system, and a manually operable control device configured to provide an output signal which is representative of a desired movement of the marine vessel. The system further includes a controller operably coupled to the marine propulsion devices, the gyroscopic stabilization system and the manually operable control device. The controller is configured to receive the output signal from the manually operable control device, resolve said desired movement of the marine vessel into a target movement command, operate the marine propulsion devices to exert a thrust on the marine vessel to achieve the target movement command, and operate the gyroscopic stabilizer system consistent with the thrust exerted by the plurality of marine propulsion devices to achieve the target movement command.

Marine vessel with gyroscope-assisted joystick maneuvering

A system for orienting a marine vessel is provided. The system includes marine propulsion devices, a gyroscopic stabilizer system, and a controller operably coupled to the marine propulsion devices and the gyroscopic stabilization system. The controller is configured to control operation of the marine propulsion devices to minimize a control torque output of the gyroscopic stabilizer system while maintaining the marine vessel in a selected global position and/or heading.

Marine vessel with gyroscope-optimized station keeping

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.

Lanyard system and method for a marine vessel

Aspects of the present disclosure relate to a cooled wireless mobile device charger. As an example, a cooling enclosure is provided, comprising a cooling surface. The cooling enclosure may shield a mobile device therein from direct sunlight or other adverse conditions, thereby reducing the heat exposure of the device. The cooling surface may comprise a thermoelectric cooling element or any of a variety of other cooling means. Additionally, the cooling surface may be angled about a lateral axis to enable a user to more easily view at least a part of the mobile device (e.g., in a landscape or portrait orientation) while the device is in the cooling enclosure. In some instances, a detachable visor is provided that further shields the mobile device from sunlight. As another example, the visor may retract within the cooling enclosure.

Cooled wireless mobile device charger

A rail system for a pontoon boat is provided. The rail system allows for the addition and removal of a pontoon boat skin, as well as additional features and attachments without dismantling the rail system. The system may include detachable rail caps and/or rail attachments that hold the skin against the rail. The rails also include features to attach exterior attachments such as accents, bumpers, and inserts.

Enclosure system for a pontoon boat

A vessel control system for a marine vessel propelled by at least one propulsion device includes a wireless lanyard system including at least one fob worn by an individual on the marine vessel and a helm transceiver at a helm area of the marine vessel configured to receive radio signals from the at least one fob. A controller is configured to detect, based on communications between each of the at least one fob and the helm transceiver, that each of the at least one fob is present on the marine vessel. A missing fob is detected if at least one of the fobs is no longer detected at the helm transceiver, and then a man overboard event is generated. The vessel control system is configured to automatically activate one or more search assistance functions based on the man overboard event.

A remote control system for a marine vessel includes a helm transceiver positioned on the marine vessel and configured to communicate with one or more fobs, and at least one operator fob configured to wirelessly transmit a fob signal to the helm transceiver on the marine vessel. A controller is configured to receive the fob signal transmitted by the operator fob and to determine an operator distance based on the fob signal. The operator distance is compared with one or more threshold distances, and then a system command is generated based on the comparison of the operator distance to the one or more threshold distances so as to control operation of one or more devices on the marine vessel.

Configurable remote control system and method for a marine vessel

A method includes accepting inputs to a marine vessel's control module, the inputs defining first and second waypoints and a desired heading, and defining a desired track between the first and second waypoints. Ideal steering and thrust commands required to orient the vessel at the desired heading and to maneuver the vessel from the first to the second waypoint are generated and carried out. The method includes measuring a current position and heading of the vessel; calculating a cross-track error based on the current position as compared to the desired track; and calculating a heading error based on the current heading as compared to the desired heading. The method includes generating corrective steering and thrust commands that are required to minimize the cross-track error and the heading error. The propulsion system propels the marine vessel according to the corrective steering and thrust commands, as appropriate.

Vessel maneuvering methods and systems

A method of controlling position of a marine vessel in a body of water includes determining, at a control module, a relative heading instruction describing a position of the marine vessel relative to a position of the sun. A target global position for the marine vessel is received, and a position of the sun relative to the target global position is determined based on a current date and a current time. A sun adjusted heading is calculated for the marine vessel based on the position of the sun and the relative heading instruction. A current heading of the marine vessel is determined, and propulsion devices on the marine vessel are controlled to position the marine vessel at the target global position and align the current heading of the marine vessel at the sun adjusted heading.

Sun adjusted station keeping methods and systems

A method for maneuvering a marine vessel powered by a propulsion system includes accepting inputs to an electronic navigation device and generating a desired track based on the inputs. The desired track includes a series of waypoints, each waypoint in the series of waypoints being associated with a respective heading. The method also includes sending position and orientation information corresponding to each waypoint and its associated heading to a control module. Based on the position and orientation information, the control module generates steering and thrust commands that are required to maneuver the marine vessel from a current waypoint and heading in the series to a following waypoint and heading in the series. According to the steering and thrust commands, the propulsion system thereafter propels the marine vessel along the desired track to each waypoint and its associated heading in succession. A corresponding system is also disclosed.

Growing community of inventors

Fond du Lac, WI, United States of America

Walter B Ross