A cross carriage for a gantry system for moving workpieces, loads and the like, formed of several construction plates arranged in adjacent parallel planes. Longitudinally and/or transversely extending hollow profiled elements are arranged between at least two of the construction plates and several or all of the construction plates and/or hollow profiled elements are predominantly formed of a plastic material, preferably a carbon fiber-reinforced plastic material.

A linear motion device includes: a linear motion mechanism having: a beam elongated in one horizontal direction; a guide member disposed in the beam to extend in the one direction; a moving member disposed to be movable along the guide member; and a moving mechanism that moves the moving member. The beam includes a metallic tubular body formed with an opening portion penetrating the metallic tubular body in the one direction and a tubular reinforcing portion formed of a carbon fiber reinforced plastic and formed in close contact with an inner surface of the metallic tubular body.

An articulating assembly of a robotic system has an extruded connector arm including a longitudinally-extending body portion and a connection portion. The body portion has an axial base member, a perimeter wall, and a plurality of webs extending radially from the base member to the perimeter wall. The robotic system may also have an actuatable joint secured to the connection portion of the connector arm. The connector arm may be cut-to-size and replaceable, thereby forming a modular component for the robotic system.

A soft robot having an integrated electrical component includes an expandable or collapsible body, the body comprising an inlet that is configured to communicate with a fluid source and a flexible strain limited layer secured to a portion of the expandable or collapsible body, wherein the strain limited layer includes at least one electrical component.

A connection structure in which a robot link member including a first wall, a second wall facing the first wall with an interval, and a connecting wall connecting the first wall and the second wall is connected with a member to be connected contacting a surface of the first wall of the link member, which does not face the second wall, the connection structure includes a bolt penetrating the first and second walls and including a head part contacting the second wall and a screw part screwed into the member to be connected, and a deformation preventing member sandwiched between the first and second walls by tightening the bolt to prevent or reduce deformation of the walls in a direction in which the walls become closer to each other.

A ceiling mounted robot includes a first arm portion, and a second motor that is provided in the first arm portion. The first arm portion has a first heat dissipation path limiting portion, and a first heat dissipation portion that is in contact with the first heat dissipation path limiting portion and has thermal conductivity higher than that of the first heat dissipation path limiting portion. The first heat dissipation portion is in contact with the second motor.

An end-of-arm tool is described and includes an outer sheet and an inner sheet. The end-of-arm tool may be reinforced with a backing plate attached to the inner sheet and a front plate attached to the outer sheet. The end-of-arm tool may also include spacers to provide structure and rigidity to the end-of-arm tool at passages configured for the installation of workpiece interface tools, for example, spring plungers.

An apparatus including a plurality of robot arm links movably connected to one another, where a first one of the robot arm links includes a frame, where the frame has a first end movably connected onto a second one of the robot arm links; and at least one vibration damper arrangement on the frame of the first robot arm link, where the at least one vibration damper arrangement includes at least one viscoelastic element connected to the frame of the first robot arm link by a connection such that, as the frame of the first robot arm link experiences vibrations, the at least one viscoelastic element dampens the vibrations in the frame of the first robot arm link based upon viscoelasticity and the connection of the at least one viscoelastic element to the frame of the first robot arm link.

The present invention relates to a metering robot for dispensing liquid and/or pasty media having three degrees of freedom of movement oriented perpendicular to one another, having a base having two first linear guides spaced apart in parallel from one another; a portal bridge that is supported in a travelable manner on the two linear guides and that has a second linear guide oriented perpendicular to the two first linear guides; and a third linear guide for the movable guiding of a cart for receiving a metering unit that is oriented perpendicular to the first and second linear guides and that is travelable along the second linear guide. The metering robot has a work space that extends in a region that is located in the longitudinal direction of the two first linear guides in a prolongation of the region that extends directly between the two first linear guides.

A linear motion device includes: a linear motion mechanism having: a beam elongated in one horizontal direction; a guide member disposed in the beam to extend in the one direction; a moving member disposed to be movable along the guide member; and a moving mechanism that moves the moving member. The beam includes a metallic tubular body formed with an opening portion penetrating the metallic tubular body in the one direction and a tubular reinforcing portion formed of a carbon fiber reinforced plastic and formed in close contact with an inner surface of the metallic tubular body.