A distraction frame includes a table mount for removably mounting the distraction frame to a surgical table; at least one horizontal strut mounted to the table mount; at least one vertical strut mounted to the at least one horizontal strut; and at least one distractor mounted to the at least one vertical strut, wherein the at least one distractor is configured for connection to a limb of a patient and for applying a distraction force to the limb of the patient; wherein the table mount comprises at least one wheel for selectively supporting the table mount above the floor and the at least one horizontal strut comprises at least one caster for selectively rollably supporting the at least one horizontal strut on the floor so that the distraction frame can be selectively moved to the surgical table supported by the at least one wheel and the at least one caster.

The present disclosure is applicable to the field of medical apparatuses, and provides a lumbar traction table. The lumbar traction table includes a table top. An upper part of the table top is provided with a leg clamping support; the leg clamping support includes leg airbags and airbag supports. The airbag supports include a left airbag support, a middle airbag support and a right airbag support; and the airbag supports protrude from an upper surface of the table top corresponding to patient's leg. An appropriate space is reserved between the left airbag support and the middle airbag support, and an appropriate space is reserved between the right airbag support and the middle airbag support.

A reduction and fixation device and a method for non-radiologic closed reduction and nailing with a weight bearable nail for femoral fractures. The reduction and fixation device includes a proximal trifurcation device, a distal trifurcation device, a length adjusting nut, and an alignment rod. The proximal trifurcation device is configured to be attached and secured to a proximal fragment of a fractured femur of a patient. The distal trifurcation device is configured to be attached and secured to a distal fragment of the fractured femur of the patient. The proximal trifurcation device, the distal trifurcation device, the length adjusting nut, and the alignment rod are configured to manipulate a proximal fragment and a distal fragment of a fractured femur to restore their alignment and orientation to a pre-fracture state.

A buoyancy-based cervical traction system has a floatation and a head rest supported by the flotation system. The head rest is adapted to support a person's head above the neck and apply traction to the neck when the person is in a body of liquid. The system has a position adjustment system adapted to allow selective adjustment of the position at which the person's head rest will be relative to an upper surface of the liquid when the person and the cervical traction system are in the liquid, the person's head is supported by the head rest, and the cervical traction system and person are floating in the liquid at equilibrium.

A buoyancy-based cervical traction system has a floatation and a head rest supported by the flotation system. The head rest is adapted to support a person's head above the neck and apply traction to the neck when the person is in a body of liquid. The system has a position adjustment system adapted to allow selective adjustment of the position at which the person's head rest will be relative to an upper surface of the liquid when the person and the cervical traction system are in the liquid, the person's head is supported by the head rest, and the cervical traction system and person are floating in the liquid at equilibrium.

A nasal airway passage device that keeps a nasal airway passage open when inserted into both nostrils. The device includes a hollow body having two hollow legs and a transverse segment that has a central opening. A malleable wire is embedded within a wall of the body, that is, embedded in a wall of each of the legs and embedded a wall of the transverse segment. The wire helps to retain the legs in either a straight orientation or a curved orientation. A band may be provided that encircles the legs initially and moves to encircle the transverse segment upon insertion of the legs into the nostrils.

The present disclosure describes an infant brace for treating an infant with a fractured clavicle. The infant brace includes a torso portion for receiving the donning infant's torso, and an arm portion for receiving the donning infant's arm on the side coinciding with the fractured clavicle. The infant brace is formed from an elastic netting material. The infant brace provides effective immobilization of the infant's affected upper arm while minimizing risks of over-heating or causing pressure sores.

The present disclosure describes an infant brace for treating an infant with a fractured clavicle. The infant brace includes a torso portion for receiving the donning infant's torso, and an arm portion for receiving the donning infant's arm on the side coinciding with the fractured clavicle. The infant brace is formed from an elastic netting material. The infant brace provides effective immobilization of the infant's affected upper arm while minimizing risks of over-heating or causing pressure sores.

A three-dimensional spine correction robot includes: a pillar, a seat, human body fixing belts, a head fixing apparatus, a bracket, pillar casing pipes, a spine lateral push-and-pull apparatus and a seat locking mechanism. The head fixing apparatus is fixed on the top of the bracket. The pillar casing pipes are movably sleeved over the pillar, and each pillar casing pipe is connected to a human body fixing belt. The lower end of the pillar casing pipe is connected to the seat, and the upper end is connected to the pillar. A first elastic connection object is connected between the pillar casing pipes. The spine lateral push-and-pull apparatus may move up and down along the pillar and swing. The seat is connected to the pillar through a bearing, and may move up and down along the pillar. The seat locking mechanism is fixed between the bracket and the seat.

A three-dimensional spine correction robot includes: a pillar, a seat, human body fixing belts, a head fixing apparatus, a bracket, pillar casing pipes, a spine lateral push-and-pull apparatus and a seat locking mechanism. The head fixing apparatus is fixed on the top of the bracket. The pillar casing pipes are movably sleeved over the pillar, and each pillar casing pipe is connected to a human body fixing belt. The lower end of the pillar casing pipe is connected to the seat, and the upper end is connected to the pillar. A first elastic connection object is connected between the pillar casing pipes. The spine lateral push-and-pull apparatus may move up and down along the pillar and swing. The seat is connected to the pillar through a bearing, and may move up and down along the pillar. The seat locking mechanism is fixed between the bracket and the seat.