A spinal support device comprises a biomechanically stiff trapezius grapnel adapted to extend over and engage human trapezius muscles from a dorsal position toward a ventral position, a harness coupled to the trapezius grapnel and adapted to snugly anchor onto a human torso to maintain engagement of the trapezius grapnel with the human trapezius muscles, and a penannular cervical spine support portion coupled to and supported by the trapezius grapnel. The cervical spine support portion comprises a series of biomechanically stiff vertebra supports and a series of symphyseal resistive dampers. The vertebra supports are spaced from one another by symphyseal resistive joints formed by the symphyseal resistive dampers so that the vertebra supports alternate with the symphyseal resistive joints. The vertebra supports and the symphyseal resistive joints are positioned for dorsal alignment with respective alternating human vertebrae.

A system for reducing trauma in the head or neck of a living being caused by acceleration of the head relative to a torso of the living being within a range of motion. The system includes a support engaging at least one of the head, neck, and shoulder of the living being without limiting the range of motion of the head or neck relative to the torso; a sensor in electrical communication with the system; a user interface in electrical communication with the sensor; and a damper associated with the support that is configured to mitigate the position, speed or acceleration of the head relative to the torso in response to information received by the sensor or user interface.

A system for reducing trauma in the head or neck of a living being caused by acceleration of the head relative to a torso of the living being within a range of motion. The system includes a support engaging at least one of the head, neck, and shoulder of the living being without limiting the range of motion of the head or neck relative to the torso; a sensor in electrical communication with the system; a user interface in electrical communication with the sensor; and a damper associated with the support that is configured to mitigate the position, speed or acceleration of the head relative to the torso in response to information received by the sensor or user interface.

A multi-sectional therapy wrap can include a first wrap section joined to a second wrap section through a specialized junction that allows the wrap sections to overlap. The junction can also be divided into two portions to facilitate fluid flow between one wrap section and the other wrap section.

A multi-sectional therapy wrap can include a first wrap section joined to a second wrap section through a specialized junction that allows the wrap sections to overlap. The junction can also be divided into two portions to facilitate fluid flow between one wrap section and the other wrap section.

An improved head/neck support device has a disc base that is attached to a hollow tube that in turn receives a first cylindrical component that has a sleeve attached to its outside wall. The device further has a spring coil disposed in the gap between the first cylindrical component and a second cylindrical component, that has a lower portion that has a diameter equal to the spring coil's and a smaller diameter upper portion. The device also has a second hollow tube that engages with the second cylindrical component and constrains the second cylindrical component from sliding out and through the second tube. The device also has a horseshoe shaped elastic band attached to the outer wall of the second tube. The device further has a chin rest that has a third hollow tube, a disc, and a top pad.

An improved head/neck support device has a disc base that is attached to a hollow tube that in turn receives a first cylindrical component that has a sleeve attached to its outside wall. The device further has a spring coil disposed in the gap between the first cylindrical component and a second cylindrical component, that has a lower portion that has a diameter equal to the spring coil's and a smaller diameter upper portion. The device also has a second hollow tube that engages with the second cylindrical component and constrains the second cylindrical component from sliding out and through the second tube. The device also has a horseshoe shaped elastic band attached to the outer wall of the second tube. The device further has a chin rest that has a third hollow tube, a disc, and a top pad.

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.

Systems for dental/orthodontic treatment can include a cervical collar, a brace, a mount, and an upper support. The brace can extend from an anterior section of the cervical collar to the upper support, which can be positioned to engage a forehead of a dental/orthodontic treatment patient. The mount can be engaged to and positioned on the brace, and can be configured to receive one or more elastics extending from fixation points within the mouth of the patient.

Systems for dental/orthodontic treatment can include a cervical collar, a brace, a mount, and an upper support. The brace can extend from an anterior section of the cervical collar to the upper support, which can be positioned to engage a forehead of a dental/orthodontic treatment patient. The mount can be engaged to and positioned on the brace, and can be configured to receive one or more elastics extending from fixation points within the mouth of the patient.