Raytheon Company

Vital Herd, Inc.

James H Rooney, Iii

Jonathan T Longley

Joel N Harris

Howard R Kornstein

Stephen C Jacobsen

Fraser M Smith

Scott H Allen

Jeremy C Hermann

Wen-te Wu

Jesse T Gratke

Michael F Janik

James Henry Miller

Thomas B Pederson

Brian R Boule

Charles M Ciany

Robert L Lescanec

Ryan J Lewis

William C Zurawski

Karim M Gabriel

Timothy I Mann

A hull cleaning robot includes at least one cleaning apparatus for cleaning the hull of a vessel, at least one drive track holding the robot on the hull as the robot maneuvers about the hull, and at least one turbine actuatable by water flowing past the hull for operating the at least one drive track and, optionally, the cleaning apparatus.

Hull robot

A hull robot includes a turbine subsystem actuatable by fluid moving past the hull, a drive subsystem for maneuvering the robot about the hull, and an adjustment subsystem for either the turbine subsystem or the drive subsystem. A controller is configured to operate the adjustment subsystem to adjust the position of the turret subsystem relative to the drive subsystem until fluid flowing past the hull results in an optimal flow of fluid with respect to the turbine subsystem.

Hull robot with rotatable turret

A hull robot includes a robot body, at least one drive module for maneuvering the robot about the hull, an on-board power source, and a motive subsystem for the drive module powered by the on-board power source. A plurality of permanent magnet elements are associated with the drive module and each are switchable between a non-shunted state when adjacent the hull and a shunted state when not adjacent the hull.

Hull robot drive system

A bolus for insertion in a body fluid includes a housing, a chamber in the housing admitting body fluid therein, and a transducer in the housing providing a signal through the body fluid for measuring the pH level and/or temperature of the body fluid. The transducer also generates a signal in response to vibrations to detecting one or more additional physiological parameters.

Health monitoring bolus

A vessel hull robot garage includes a stowage compartment for stowing a hull robot and a rotation system for rotating the stowage compartment relative to the vessel between a launch/recovery attitude and a stowed position.

Hull robot garage

A vessel hull robot navigation subsystem and method for a robot including a drive subsystem onboard the robot for driving the robot about the hull. A sensor subsystem onboard the robot outputs data combining robot and vessel motion. A memory onboard the robot includes data concerning the configuration of the hull and a desired path of travel for the robot. A fix subsystem communicates position fix data to the robot. A navigation processor onboard the robot is responsive to the memory data, the sensor subsystem, the position fix data, and the data concerning vessel motion. The navigation processor is configured to determine the position of the robot on the hull by canceling, form the sensor subsystem output data combining both robot and vessel motion, the determined vessel motion. The navigation processor controls the drive subsystem to maneuver the robot on the hull based on the fix data, the configuration of the hull, the desired path of travel for the robot, and the determined position of the robot on the hull.

Vessel hull robot navigation subsystem

A robot drive system preferably used for a vessel hull cleaning and/or inspection robot includes a first frame portion rotatably supporting a first axle with a first wheel thereon, and a second frame portion rotatably supporting a second axle with a second wheel thereon. A joint connects the first frame portion to the second frame portion and defines an expendable and contractible portion between the first frame portion and second frame portion. An actuator subsystem is configured expand and contract the expandable and contractible portion to move the first frame portion relative to the second frame portion at the joint to angle the first axle relative to the second axle to steer the robot.

Hull robot steering system

Low probability of marine mammal impact (LPMMI) sound signals have a modulation component selected to reduce a behavioral response from a marine mammal from that which would occur when transmitting another sound signal having approximately the same time duration component, approximately the same bandwidth component, and approximately the same center frequency component as the LPMMI waveform but having a modulation component comprising a frequency modulation.

Growing community of inventors

Harvard, MA, United States of America

James H Rooney, Iii