A lightweight 4-degree-of-freedom leg mechanism of a bionic quadruped robot, which includes a hip-joint lateral-swing assembly, a thigh longitudinal-swing assembly and a shank longitudinal-swing assembly. The hip-joint lateral-swing assembly includes a hip-joint swing cylinder and an electro-hydraulic actuator. One end of the electro-hydraulic actuator and one end of the thigh longitudinal-swing assembly are respectively connected to the hip-joint swing cylinder via a connecting block. The other end of the electro-hydraulic actuator is hinged to a side of the thigh longitudinal-swing assembly. The other end of the thigh longitudinal-swing assembly is hinged to the shank longitudinal-swing assembly.

A system and related methods for operating a robotic system with a routing mechanism is disclosed herein. The routing mechanism may surround external components that extend across a link and connect to an end effector. The routing mechanism may include guides, brackets, or a combination thereof configured to maintain the external components along a predetermined path relative to the link, the end effector, one or more corresponding joints, or a combination thereof during movement of the link and/or the end effector.

A mechanical arm assembly is generally presented. The mechanical arm assembly comprises a plurality of joints including a first joint, one or more intermediate joints, and a terminal joint connected in consecutive series and each configured to rotate with respect to any respective adjacent joints. The first, intermediate, and terminal joints are configured with their base and top arranged at a given angle with respect to the normal plane of the joint, such as parallel to the normal plane or 22.5 degrees with respect to the normal plane. Rotation of the joints is controlled by control wires. The control wires may be routed internally through the joints or externally outside of the joints.

The arm structure of a robot includes a first motor and a second motor attached to an arm member, a first bearing attached to the arm member, an arm member supported on the arm member by the first bearing, a first gear rotating together with the first bearing, a first motor transmission gear transmitting rotation force of the first motor to the first gear, a second bearing attached to the arm member and having a center axis perpendicular to a center axis of the first bearing, a rotary member supported on the arm member by the second bearing and rotatable relative to the arm member, a second gear attached to the rotary member, and a second motor transmission gear transmitting rotation force of the second motor to the second gear to make the rotary member rotate.

Embodiments relate to robotic arm assemblies. Robotic arm assembly includes an arm segment and end-effector assembly. Arm segment includes an elongated body which forms an arm segment central axis. End-effector assembly is securable to the arm segment. End-effector assembly includes an instrument assembly and first gear assembly. Instrument assembly includes an instrument and instrument gear. Instrument forms an instrument central axis. Instrument is for performing an action. Proximal end of instrument is secured to the instrument gear. First gear assembly includes a first primary gear and protrusion portion. First primary gear includes a second central axis formed through the first primary gear. Second central axis intersects with first central axis, instrument central axis, and arm segment central axis. Protrusion portion is secured to the first primary gear, and includes an opening. A portion of the proximal end of the instrument is provided in the opening and rotatable within the opening.

Disclosed herein are various robotic surgical devices and systems that include first and second elongate bodies, first and second driveshafts disposed through the second elongate body, and an in-line shoulder joint with a robotic arm coupled thereto. In certain implementations, the in-line shoulder joint has a differential yoke and a dual shaft disposed within the yoke lumen.

A semi-automatic precision positioning robot apparatus and method for use of the same to hold, position, orient and/or move a workpiece are provided. The positioning apparatus utilizes an actuator system of a given configuration to manipulate a workpiece holding unit with multiple degrees of freedom to achieve various positions and orientations. An associated took may further be provided to interact with the workpiece in various positions and orientations. The positioning apparatus enables an operator to obtain high degrees of maneuverability while maintaining precision and consistency in the manufacture and production of various products and components.

A robot hand capable of rotating and inserting a workpiece into a hole, while preventing a workpiece from being damaged when the workpiece is gripped. The robot hand includes a first hand section, a second hand section provided with a workpiece gripping section capable of gripping a workpiece, an elastic member configured to connect the first hand section and the second hand section in an elastically displaceable manner, and a movement restricting mechanism configured to releasably restrict a rotation movement of an elastic displacement of the second hand section with respect to the first hand section.

A laundry apparatus contains a steamer for providing steam, a first unit for blowing the steam towards a fabric and a second unit for blowing a hot gaseous matter towards the fabric, wherein the hot gaseous matter is formed by heating the gaseous matter also with the steam. An apparatus for removing wrinkles from garments contains a hanger for hanging a garment, a steam tube to blow steam into a sleeve of the garment, and an expandable component underneath the shoulder. The expandable component is in a compact state when the sleeve of the garment is initially hung from the shoulder, and in an expanded state to close the passage between the sleeve and a torso of the garment, wherein the steam blocked by the expandable component operates to remove wrinkles in the sleeve.

A multiaxial robot includes a first rotation module, a second rotation module, and a connecting member. The first rotation module includes a base and a plurality of arms. The arms are configured to rotate parallel to a first plane relative to the base. The second rotation module includes at least one wrist. The wrist is connected to the farthest arm arranged from the base in the first rotation module and configured to rotate parallel to a second plane relative to the first rotation module. The connecting member is pivotally connected to the base and connected to an adjacent one of the arms, or is connected between adjacent two of the arms and the wrist.