In general, various surgical patient positioners and methods for using the same are provided. For example, a surgical patient support is provided for use during anterior hip replacement surgery. The surgical patient support can have a body support configured to receive an upper body of a patient thereon and one or more extremity supports configured to receive one or more patient extremities thereon.

A patient support apparatus is defined that includes a patient support having one or more pads for supporting a patient's torso and hip in a generally horizontal orientation. At least one, elongated leg support extends from the patient support. The leg support is movable through a generally horizontal plane. A portion of the leg support is declinable and inclinable from the horizontal plane. A traction device is connected to the leg support. The traction device is attachable to a patient's leg and operable to exert a traction force on the patient's leg along an axis of the traction device. The traction device is connected to the leg support by a slide assembly and the traction device can be secured stationary relative to the leg support or the traction device can slide relative to the leg support.

A support system for positioning a patient in lateral position during surgery procedures with a removable, adjustable support pad assembly, comprising a first support unit arranged for attachment to side rail on a lateral edge of an operating table, and a second support unit comprising an arm connected movably by the using of a movable connection with a pad plate adapted to position a support pad connected by a biasing connector to a support plate with degrees of freedom of angular rotational movement of the support pad in relation to the patient. The biasing connector comprises a channel formed between a base plate support segment and a projection clamping the pad plate apart from the support plate to allow flow of air and/or fluids from the support pad.

Systems and methods for adjusting bone cut positioning are disclosed that can aid in optimizing implant size selection and positioning relative to bone during, e.g., orthopedic surgical procedures such as knee arthroplasty, hip arthroplasty, etc. In one embodiment, such a surgical method can include performing a first bone cut of a first bone using an at least partially robot-assisted surgical instrument, detecting one or more parameters related to bone hardness, selecting a bone hardness index based on the one or more detected parameters, and adjusting a position of a second bone cut of the first bone based on the selected bone hardness index to optimize implant fit relative to bone. Detecting the one or more parameters related to bone hardness can be performed in a number of manners, including by monitoring energy required to perform the first bone cut.

The patient positioning frame includes a posterior support, a lateral support, and an anterior restraint. The patient positioning frame can be placed on an upper surface of a conventional surgical table with the posterior support lying horizontally and the lateral support position vertically. A patient lies supine on the lateral support and is restrained using the anterior restraint assembly. The patient and the patient support are then simultaneously turned on the table to expose the patient's hip region for subsequent hip replacement or other surgery.

The present invention provides an apparatus for moving a patient on a pad and holding the pad in place on a an anterior hip table or a standard surgical table. The pad works in conjunction with the reusable patient lifting/moving base, allowing nurses to more readily and easily move patients on the table in order to facilitate surgical positioning. The pad may also be used in combination with a post overlay to prevent injuries to the genital area of the patient.

A traction system for automatically tracking and displaying parameters of a joint during surgery. The traction system includes a traction device and a computing device. The traction device has a proximal end and a distal end. The proximal end has a platform with a perineal post extending therefrom and the distal end has one or more footrests extended therefrom. One or more sensors are connected to the traction device. The one or more sensors generate sensor data based on movement of the traction device. A computing device is connected to the one or more sensors and is configured to receive the sensor data and process the sensor data into a metric. A display connected to the computing device is configured to display the metric.

The invention is directed to a system and methods to reduce a hip joint dislocation. Embodiments of the system may include a unitary or multipartite leg support assembly having about a 90-degree bend that is shaped to accommodate a leg, a lifting component, and a component for securing a leg to the leg support assembly. Embodiments of the multipartite leg support may be adjustable to accommodate any leg length. Embodiments of the system provide a mechanical advantage that may be used to reduce the hip joint, while simultaneously decreasing the possibility of injury to the user.

A surgical frame and method for use thereof is provided. The surgical frame is capable of reconfiguration before, during, or after surgery. The surgical frame includes a main beam that can be rotated, raised/lowered, and tilted upwardly/downwardly to afford positioning and repositioning of a patient supported thereon. The surgical frame also includes a pelvic support for supporting a patient during movement of the main beam. The pelvic support is articulable between at least a retracted first position where the pelvic support is withdrawn from the pelvic area of the patient, and an extended second position where the pelvic area is supported thereby.

A surgical table attachment for providing hyperextension of the hip joint during direct anterior approach without need for lowering the distal end of the operating table. The attachment will allow external rotation as well as adduction for better exposure of the proximal end of the femur. It further allows for motorized traction of the lower extremity controlled by the operating surgeon. The inventive device conveniently incorporates a femoral elevator mechanism that will raise the proximal end of the femoral bone for better visualization through the wound and easier reduction of the implant. The device is easily used with any conventional surgical table and can made from radiolucent material allowing intraoperative X-ray control.