An apparatus for positioning a lower limb of a patient during surgery comprises at least one support structure connectable, through a proximal end, to a support device for a patient and defining a traction axis of the patient's lower limb, a traction slide slidingly movable on the support structure, a gripping body for a distal end of the patient's lower limb connectable to the traction slide. The support structure, when connected to the support device for a patient, is suspended and comprises at least one actuator, hydraulically connected with the traction slide, for moving the support structure in space.

A patient support apparatus for supporting a patient in a prone position during a surgical procedure is provided, including an open fixed frame suspended above a floor and a pair of spaced opposed radially sliding joints cooperating with the frame, each joint including a virtual pivot point and an arc of motion spaced from the virtual pivot point, the joints being movable along the arc providing a pivot ship mechanism for a pair of pelvic pads attached to the joints. A base for supporting and suspending a patient support structure above the floor, for supporting a patient during a surgical procedure, the base including a pair of spaced opposed vertical translation subassemblies reversibly attachable to a patient support structure, a cross-bar, and a rotation subassembly having two degrees of rotational freedom; wherein a location of each vertical translation subassembly is substantially constant during operation of the patient support structure.

A patient support apparatus for supporting a patient in a prone position during a surgical procedure is provided, including an open fixed frame suspended above a floor and a pair of spaced opposed radially sliding joints cooperating with the frame, each joint including a virtual pivot point and an arc of motion spaced from the virtual pivot point, the joints being movable along the arc providing a pivot ship mechanism for a pair of pelvic pads attached to the joints. A base for supporting and suspending a patient support structure above the floor, for supporting a patient during a surgical procedure, the base including a pair of spaced opposed vertical translation subassemblies reversibly attachable to a patient support structure, a cross-bar, and a rotation subassembly having two degrees of rotational freedom; wherein a location of each vertical translation subassembly is substantially constant during operation of the patient support structure.

A limb support comprises a spar, a limb rest, and a coupler. The spar is configured to be supported from a patient support apparatus and adjustable relative to the patient support and has a longitudinal axis. The coupler includes a release that is selectively actuable to release locking mechanisms to permit adjustment of the limb support relative to the spar.

Some systems, devices and methods detailed herein provide adjustable restraint device maintaining a selected position of a person relative to a support structure, for example, to maintain a safe and customizable patient position during a surgical procedure or during medical transport.

A surgery table includes a patient support structure coupled to a connection assembly and a base structure coupled to the connection assembly. The connection assembly includes an arm and a locking member that engages the arm. The arm includes spaced apart first and second apertures. The locking member includes spaced apart first and second bores. A first key member and a second key member are included.

A surgical operation table capable of operating a table with a large slide width without a slide mechanism interfering with other members in a slide operation of the table is provided. A surgical operation table S including a table 10 movable in a horizontal direction to a base 2 includes a slide mechanism 20 that moves the table 10 in the horizontal direction, and the slide mechanism 20 includes a rack 21a extending in a longitudinal direction of the table 10, a driving gear 26, a driven gear 27 and an idler gear 28 that are meshed with the rack 21a and rotate integrally, and an actuator 23 that supplies a rotational driving force to at least one of the gears 26 to 28.

A modular surgical system includes a base and a column extending from the base. An adaptor is positioned at a top of the column. An elevation assembly is provided to adjust a height of the adaptor. A control system is positioned in at least one of the base or the column. The control system is configured to communicate with remote devices. The control system is further configured to control the elevation assembly.

The present technology is directed to robotic systems that support and selectively adjust a position of a patient's head and neck during surgery. The robotic head holding systems may include a patient engagement assembly for supporting a portion of the patient and one or more arm segments connecting the patient engagement assembly to a surgical bed. An actuator can move the patient engagement assembly and/or the one or more arm segments to adjust a position of the patient, and a controller can receive user inputs for automatically controlling operation of the actuator.

The present disclosure relates to a system comprising an operating table, and air bladder, and an air compressor, in particular, to a system which is used for kidney surgery.