The present invention is a bone growth stimulating and promoting cytokine type biological implant preferably comprising PTH coated with a controlled release biodegradable coating that is implanted preferably in the concave side of a scoliotically curved spine in combination with a bone growth inhibiting type biological implant preferably comprising methotrexate or like anti-metabolite coated with a controlled release biodegradable coating that is implanted preferably in the convex side of a scoliotically curved spine. The insertion of the biological implant is highly non-invasion, especially as compared to more conventional spine surgical methods, and the biological implant does not decrease spinal mobility or spinal range of motion.

A lumbar traction device for treating a lower back of a user includes a shell that is coupled to and extends from a rear edge of a panel. The shell and the panel are configured to position on a seat and in abutment a backrest of a chair, respectively. A coupling means that extends through a front of the shell is coupled to a plate positioned in the shell. The coupling means is configured to couple to a torso of the user to couple the user to the plate. An actuator, which is positioned in the shell and operationally coupled to the plate, is positioned to selectively raise the plate relative to the seat of the chair. The coupling means is configured to transmit an upward force from the actuator to the torso of the user to place a lumbar region of a spine of the user in traction.

An adjustable scoliosis orthosis includes: an orthosis body sleeved on the outside of a user's torso in a ring shape, with its inner wall fitted to the user's torso, and provided with an opening for the torso to enter and exit, wherein a through mounting hole is provided at a designated position on the orthosis body; a connecting structure for connecting both sides of the opening of the orthosis body; and an adjustment device arranged at the mounting hole and comprising an airbag structure. The airbag structure is at least partially arranged inside the orthosis body and is fitted to the user's torso to exert a pressing force that is positively correlated with the internal gas pressure of the airbag structure.

A postural orthosis support apparatus for use with a personal body armor carrier includes a resilient semi-rigid base panel and at least one cushioning element. The base panel has a curvature for promoting a desired alignment of a spine of a user. The base panel includes a low temperature thermoplastic material, so that the curvature may be custom molded directly on the thoracic and lumbar areas on a person's back to ergonomically improve and support optimal posture. The postural orthosis support apparatus is configured to be secured to a personal body armor carrier interior of a ballistic panel.

A device that decompresses the lower spine while the wearer is seated or standing. The device includes two belt-shaped straps. The first strap circles the upper torso just below the breast line. The second strap circles the waist at or slightly above the normal belt line riding on the hip. In embodiments of the invention, the lower strap can be a normal belt. The straps can be equipped with pockets that are aligned along the upper edge of the upper strap and the lower edge of the lower strap designed to receive and hold flat splints. Typically, two rigid flat splints extend vertically between the straps centered laterally on the left and right sides of the torso. When the device is worn, it decompresses the lower spine when the person stands or sits.

A human interface device is configured to be coupled to a trunk of a person and comprises a frame, a fabric coupled to said frame configurable to be under tensile forces, and a belt configured to be coupled to two side edges of said frame wherein when said belt is worn by said person, an area of said fabric will be pushed against the person's lower back conforming to the shape of the lower back of said person. In operation when said human interface device is worn by said person, the weight of any load coupled to or supported by said frame will be partially supported by the friction force between the area of said fabric which is pushed against the person's lower back, and the person's lower back allowing said person to carry said load.

An orthopedic device for supporting a lower back of a user includes a mechanical energy store, a pelvic element, an upper body element with a first force transmission element and an upper leg element with a second force transmission element. The upper leg element is arranged on the pelvic element such that it can be swivelled about a first swivel axis, the upper body element is movably arranged relative to the pelvic element, the first force transmission element can be engaged and disengaged with the second force transmission element by moving the upper body element relative to the pelvic element, and the mechanical energy store can be charged and discharged by swivelling the upper leg element relative to the upper body element when the first force transmission element is engaged with the second force transmission element.

An orthopedic device for supporting a lower back of a user includes a mechanical energy store, a pelvic element, an upper body element with a first force transmission element and an upper leg element with a second force transmission element. The upper leg element is arranged on the pelvic element such that it can be swivelled about a first swivel axis, the upper body element is movably arranged relative to the pelvic element, the first force transmission element can be engaged and disengaged with the second force transmission element by moving the upper body element relative to the pelvic element, and the mechanical energy store can be charged and discharged by swivelling the upper leg element relative to the upper body element when the first force transmission element is engaged with the second force transmission element.

Systems and methods are provided for mitigating and/or preventing a hernia using a wearable device worn by a user such that an output device is positioned at a predetermined location corresponding to a target hernia mitigation site on the user's body. One or more physical parameters of the user are monitored to identify when the user is about to perform a predetermined physical activity, and the output device is activated to provide an output to mitigate a hernia or prevent a hernia from occurring at the mitigation site when the predetermined activity is performed.

The lumbar support assistive device includes a plastic rigid main member having a half-fusiform whose front side curves in accordance with human spine. A trough is provided along the front side extended in an axial direction to a bottom side of the main member. A number of forward bulging semi-ellipsoidal elements are arranged at intervals in two columns along lateral sides of the trough. The semi-ellipsoidal elements closer to a bottom of the main member are wider and higher; and the semi-ellipsoidal elements closer to a top of the main member are narrower and lower, and they are closer to the semi-ellipsoidal elements in the other column. These semi-ellipsoidal elements provide massaging effect and support to corresponding intervertebral discs of the spine. The semi-ellipsoidal elements also raise the lumbar support assistive device to provide enhanced ventilation so that wearing the lumbar support assistive device would not feel sultry.