A robot apparatus is provided on a stand and includes a control apparatus that controls the robot apparatus. The control apparatus calculates vibration generated on the stand based on model data of the stand and trajectory data of an operation of the robot apparatus and corrects the trajectory data based on the vibration.

A food preparation system arranged in a kitchen includes a gantry fixed with the kitchen, at least one robot arm having an end effector supported on a base in the kitchen, where the base is movably mounted on the gantry, defining a reaching distance of the robot from the end effector to the base, along a travel path of the base on the gantry, a storage container arranged in the kitchen, within the reaching distance of the at least one robot arm, and configured for storing a food item, at least one ingredient distribution device arranged in the kitchen, within the reaching distance of the at least one robot arm, and configured for dispensing at least one ingredient on the food item, and an oven arranged in the kitchen, within the reaching distance of the at least one robot arm, and configured for baking the food item.

A robot includes a robot arm formed with an ingredient channel including an ingredient inlet and an ingredient outlet; an ingredient feeder having an ingredient port configured to discharge ingredients; and a carrier configured to move the robot arm to a connection position where the ingredient inlet is connected to the ingredient port, and move the robot arm to an area where the ingredient inlet is separated from the ingredient port.

Disclosed herein is a robotic system comprising a robotic arm, an end effector coupled to a distal end of a robotic arm, one or more cameras, and a processors configured to construct a three-dimensional (3D) model of a user based on received data from the one or more cameras, identify automatically a target therapy point on the user based on the constructed 3D model, and actuate the end effector to apply a therapy to the target therapy point.

In one example there is disclosed, an apparatus (10) for vacuum cleaning a tank (11). The apparatus (10) includes a main body (12) coupled to a working arm (14) and a plurality of support legs (16) coupled to the main body (12). The main body (12) includes a main conduit (40) extending lengthwise therethrough and a common central actuator (32) fitted about by the main conduit (40). The working arm (14) includes a vacuum conduit (50) in fluid communication with the main conduit (40). The plurality of support legs (16) are operatively coupled to the common central actuator (32) so as to be simultaneously moveable at least between a collapsed condition so as to fit through an opening 18 of the tank 11, and an extended condition in which the plurality of support legs (16) are moved relatively outwardly so as to be telescopically extendable within the tank (11) to engage a side wall (20) of the tank to support the main body (12). Other examples of the apparatus, a system and related methods are also disclosed.

Methods for manufacturing foam wall structures are described. The methods include placing a wall structure proximate to a robotic arm, orienting an imaging device so that the imaging device on the robotic arm faces a cavity in the wall structure, surveying the cavity using the imaging device, determining a spray foaming pattern to fill the cavity to a selected depth with a foam layer, orienting the spray nozzle so the spray nozzle faces the cavity, and spray-applying the foam-forming composition into the cavity to the selected depth by passing the foam-forming composition through the spray nozzle to form the foam layer. Foam wall structure manufacturing systems that are suitable for carrying out such methods are also described.

An automated method for distributing closure elements with screwing and/or stopping means structure, comprising including supplying a turntable with a plurality of closure elements arranged on the turntable, including detecting the format of each closure element arranged on the turntable and gripping each closure element for which the format has been detected in order to distribute it to a transfer device capable of transporting a plurality of closure elements with screwing and/or stopping structure.

A drive system comprises a support structure for a guideway defining an X-Y array of tracks (22, 24) so that one or more carriages (10) can run along the tracks to any desired position. The carriages are intended to either carry a single robotic device or work together to carry a larger robotic device. The track is made up of an array of pegs (14) supported from a ceiling plane made up of an array of tiles (8) which provide for electrical connections to the carriages. Each peg carries a spool mounted between two horizontal flanges that cooperates with a rectangular sprocket connected to a base of a cuboid carriage housing. The carriages are driven by internal electric motors that are arranged to drive two pairs of omniwheels (90) on the ceiling plane while the carriage is supported and guided by means of its sprocket.

This system has an articulated robot having an arm and a base portion which rotatably supports the arm; and a rotation positioner to which the base portion of the articulated robot is mounted. A turn axis of the base portion of the articulated robot is orthogonal to a rotation axis of the rotation positioner. Thus, interference of a workpiece with the arm can be avoided and flexibility of works performed by the robot can be expanded.

A robotic system having a movable gantry robot (10) for conducting construction operations. The gantry may have an expandable bridge (20) and articulated gantry support legs (34) as well as a support track system (60) holding a gantry robot (800) which may hold one or more implements and peripheral devices (806). The device can be moved by propulsion mechanisms, a controller, and one or more geo-positioned control devices to provide position information for the robotic gantry as it moves back and forth along a plurality of work sites (700). The robotic gantry is connected to a power supply system (236). The controller is automated, self-navigating, and activates, deactivates, and/or changes the operation of the propulsion mechanisms, and deploys, retracts, activates, deactivates, and/or changes the operation of one or more of the construction implements. The height of the frame may be adjusted by extending and rotating risers and booms to accommodate different building heights or sub-level heights at a worksite. A conveyor system is optimized for removing dirt from or delivering material to the robotic arm. This invention can be applied to automating construction jobs including surveying, land preparation, excavation, foundation, masonry, framing, and additive fabrication.