A vibrating back massager with guide slot and vibrating heads is described. The guide slot is designed to restrict lateral movement of the massage device when the guide slot is engaged with a supporting member. The supporting member may be the edge of an open door, a corner, a vertical pole, or other generally available structure. The device includes a strap handle which may be draped over the user's shoulder and used to control the vertical position of the device. The described vibrating massage device allows a single user to create and maintain a significant amount of massage pressure without fatiguing his arms or relying on a second person. In a preferred embodiment, the controls for the vibrating massage device are incorporated into the strap handle so that the speed, intensity, and/or temperature may be controlled by the user without repositioning the device.

A portable traction device can include a sling that is sized to cradle a user's head. The sling can be associated with an anchor that is positioned a height above the floor when the portable traction device is in use. A tensile force vector between the anchor and the sling allows for cervical traction. The portable traction device can additionally include one or more flexible straps between the anchor and the sling that can differentially regulate the amplitude of the tensile force vector by stretching.

This application discloses a portable exercise device for flexibility and strengthening. In some embodiments, the device is comprised of one elastic band of surgical tubing or like material and one non-elastic band, with two pairs of looped handles tied to each end of the elastic band. These looped handles can attach to a user's limb without any need for grasping. The non-elastic end of the device can be affixed to an anchor point. The exercise device offers light but adjustable resistance via a resistance modulator, allowing the user to engage in a full range of standing and seated exercises with forces comparable to swimming. In addition, two instances of the device can be combined to engage both the user's hands and feet simultaneously.

A roller device, including a first tube having a first diameter, and a through-bore having a second diameter smaller than the first diameter, the through-bore extending through and concentric with the first tube, a first rod having a third diameter smaller than the second diameter, a first end, and a second end, where the second end of the first rod is operatively arranged to telescopingly engage with the through-bore of the first tube, a second rod having a fourth diameter equal to the third diameter, a first end and a second end, where the first end of the second rod is operatively arranged to telescopingly engage with the through-bore of the first tube, at least one roller arranged to rotate about the first tube, and a first handle fixedly secured to the first end of the first rod.

The present disclosure provides a traction device mountable on a vertical surface, such as a wall or door. The traction device can be adjusted by a user to alter the amount of tension applied to the user by a harness of the traction device.

A sling of a portable traction device cradles a user's head primarily at the back and lower part of the skull. The sling is attached to at least one shock cord. The at least one shock cords is also anchored to a structure, such as a closed door at the hinged side of the door, between the door and door frame, using an anchor, at a height, to generate a tension vector at an acute angle relative to the floor. The tension applies cervical traction.

A portable traction device can include a sling that is sized to cradle a user's head primarily at the back and lower part of the skull. The sling can be associated with flexible elastic tethers that are, in turn, associated with an anchor that is positioned a height above the floor when the portable traction device is in use. A tensile force vector between the anchor and the sling allows for cervical traction. The sling can additionally be associated with speakers and/or resonant actuators and can be simplified to increase portability and ease of use.

A roller device, including a first tube having a first diameter, and a through-bore having a second diameter smaller than the first diameter, the through-bore extending through and concentric with the first tube, a first rod having a third diameter smaller than the second diameter, a first end, and a second end, where the second end of the first rod is operatively arranged to telescopingly engage with the through-bore of the first tube, a second rod having a fourth diameter equal to the third diameter, a first end and a second end, where the first end of the second rod is operatively arranged to telescopingly engage with the through-bore of the first tube, at least one roller arranged to rotate about the first tube, and a first handle fixedly secured to the first end of the first rod.

A foam roller system that may be used on a floor or mounted to a vertical surface such as a door or wall. The system may include stands that attach to a central axle inside the foam roller, and detachable mounting straps that attach to the stands; the straps may be hooked for example around the edges of a door to mount the roller system on a door. The position of the roller on the door may be adjusted by sliding the stands along the straps. The roller may include thermal and vibration elements to enhance therapies. The stands may have resistance elements to provide resistance to rolling.

A device for redirecting force to release tension in muscles and fascia in a body part.