Abstract: In a method of forming a compression sleeve, a wicking layer is provided that is strategically exposed to promote wicking and cooling of the body part acted upon by the sleeve. The wicking layer has a perimeter and a surface area. A bladder segment that defines a bladder has a surface area less than the surface area of the wicking layer. The surface area of the bladder segment is defined by the perimeter of the bladder material, less any openings formed through the bladder material. The wicking layer is secured to the bladder material so that portions of the wicking layer are not overlaid by the bladder material. The bladder segment is welded to the wicking layer along a seamline so that fibers of the wicking layer extend through the seamline and allow fluid wicked by the wicking layer to move through the seamline.

Abstract: A compression device has improved cooling capability. The device includes a wicking layer adapted to move moisture. A portion of the wicking layer is exposed from under bladder material defining a bladder. In use, the wicking layer wicks moisture from the patient's limb and the wicked moisture is able to evaporate through the device at the portion of the wicking layer that is exposed.

Abstract: A circumferential compression sleeve has bladder openings extending through a bladder, making the sleeve generally breathable and comfortable for the wearer. The openings include at least about 4% of a total surface area of the bladder. The device also has a static evaporation rate through the device of at least about 20 mg/minute. In one example, the device includes a wicking layer for contacting the wearer's skin. The wicking layer wicks moisture from the wearer's skin and generally moves the moisture to portions of the layer in registration with the openings where the moisture is allowed to evaporate therethrough.

Abstract: A device for applying compression treatment to a part of a wearer's body includes an S-shaped bladder with at least first and second spaced apart sections in fluid communication. At least one opening is formed between the first and second sections. The at least one opening may a single opening extending along a majority of a length of the first and second sections. The at least one opening may be a plural of openings. At least one opening may be formed between the second section and a third section of the bladder.

Abstract: In a method of forming a compression sleeve, flexible bladder layers are secured together to define first and second adjacent flexible sleeve sections. A rigid structural component, such as a tube for delivering air to a bladder of the sleeve or another structure, is secured between the first and second flexible sleeve sections to prevent buckling a movement of the sleeve sections downward when the sleeve is wrapped around a leg the wearer. An inner layer and an outer cover are secured to the bladder layers at a plurality of discrete weld spots to provide further structural support to the sleeve.

Abstract: A circumferential compression sleeve has bladder openings extending through a bladder, making the sleeve generally breathable and comfortable for the wearer. The device has a static evaporation rate through the device of at least about 20 mg/minute. The device has a convective evaporation resistance of less than about 75. In one example, the device includes a wicking layer for contacting the wearer's skin. The wicking layer wicks moisture from the wearer's skin and generally moves the moisture to portions of the layer in registration with the openings where the moisture is allowed to evaporate therethrough.