Abstract: Methods, systems, and apparatus, including computer programs encoded on computer storage media, for robot motion planning using unmanned aerial vehicles (UAVs). One of the methods includes determining that a current plan for performing a particular task with a robot requires modification; in response, generating one or more flight plans for an unmanned aerial vehicle (UAV) based on a robotic operating environment comprising the robot; obtaining, using the UAV in accordance with the one or more flight plans, a new measurement of the robotic operating environment comprising the robot; and generating, based at least on a difference between the new measurement of the robotic operating environment and a previous measurement of the robotic operating environment, a modified plan for performing the particular task with the robot.

Abstract: Methods, systems, and apparatus, including computer programs encoded on computer storage media, for robot motion planning using unmanned aerial vehicles (UAVs). One of the methods includes determining that a current plan for performing a particular task with a robot requires modification; in response, generating one or more flight plans for an unmanned aerial vehicle (UAV) based on a robotic operating environment comprising the robot; obtaining, using the UAV in accordance with the one or more flight plans, a new measurement of the robotic operating environment comprising the robot; and generating, based at least on a difference between the new measurement of the robotic operating environment and a previous measurement of the robotic operating environment, a modified plan for performing the particular task with the robot.

Abstract: Methods, systems, and apparatus, including computer programs encoded on computer storage media, for a mobile robotic frame system. In some implementations, a mobile robot includes a motorized frame that is configured to travel to a location. The mobile robot includes a positioning assembly coupled to the motorized frame, a robotic arm having a manipulator, and sensors coupled to the motorized frame. A control system is configured to process data from the sensors and, based on the data from the sensors, provide control data to (i) move the motorized frame, (ii) adjust one or more movable components of the positioning assembly, and (ii) move the robotic arm relative to the motorized frame. The one or more movable components and the robotic arm are operable to position the manipulator at any position in a three-dimensional work volume with 6 degrees of freedom while the motorized frame remains at the location.

Abstract: The apparatus includes a moveable support platform within the container to reduce a distance that items fall into the container when stowed. The support platform is lowered by a movement mechanism as items are placed into the container. The movement mechanism may be a bladder filled with air, a biasing device, a pneumatic device, or a mechanical device. The moveable support may form a bottom portion of the container during transport of the container. In some instances, the movement mechanism may lift items out of the container to empty the container at a destination.

Abstract: The apparatus includes a moveable support platform within the container to reduce a distance that items fall into the container when stowed. The support platform is lowered by a movement mechanism as items are placed into the container. The movement mechanism may be a bladder filled with air, a biasing device, a pneumatic device, or a mechanical device. The moveable support may form a bottom portion of the container during transport of the container. In some instances, the movement mechanism may lift items out of the container to empty the container at a destination.

Abstract: A moveable support platform within a container may reduce a distance that items fall into the container when stowed. The moveable support platform is lowered by a movement mechanism as items are placed into the container. The movement mechanism may be a bladder filled with air, a biasing device, a pneumatic device, or a mechanical device. The moveable support platform may form a bottom portion of the container during transport of the container. In some instances, the movement mechanism may lift items out of the container to empty the container at a destination.

Abstract: A unique digital identifier of a bundled set of items may be generated based on imaging data or other information captured from the bundled set, stored, and used for any purpose. The imaging data or other information may depict or describe the bundled set after the items have been wrapped or otherwise combined in a unique manner using a binding agent, e.g., a sheet of shrink wrap, a rubber band, or any other materials. Unique digital identifiers of bundled sets of items may be stored in association with information regarding the items. When a bundled set of items is recognized based on its unique digital identifier, information regarding the bundled set may be accessed and used for any purpose, such as to identify a common container for the bundled set based on attributes of any of the items or an order with which the bundled set is associated.

Abstract: A unique digital identifier of a bundled set of items may be generated based on imaging data or other information captured from the bundled set, stored, and used for any purpose. The imaging data or other information may depict or describe the bundled set after the items have been wrapped or otherwise combined in a unique manner using a binding agent, e.g., a sheet of shrink wrap, a rubber band, or any other materials. Unique digital identifiers of bundled sets of items may be stored in association with information regarding the items. When a bundled set of items is recognized based on its unique digital identifier, information regarding the bundled set may be accessed and used for any purpose, such as to identify a common container for the bundled set based on attributes of any of the items or an order with which the bundled set is associated.