A breathable cooling pillow includes a polymeric foam layer having a top surface, a bottom surface, and sides extending between the top surface and the bottom surface and a polymeric gel cooling layer disposed directly on the top or bottom surface. The gel cooling layer is molded, at least in part, into the foam layer. A method of making a breathable cooling pillow is disclosed.

Pivotably connected upper and lower cushions may be sized and shaped to protect chest and lower abdomen areas of a patient, respectively. The cushion structure may be held against the chest and/or abdomen areas of a patient by a combination of an adjustable and disconnectable neck strap attached to an upper portion of the upper cushion, and an adjustable length and resilient strap, such as an elastic belt binder, which may be positioned around the user's waist and the upper cushion. The lower cushion may pivotably move with the patient's legs, allowing the cushion structure to be comfortably used when moving between standing and seated positions, and providing improved protection from automotive seat belts. Pockets may be provided for positioning ice packs proximate the patient's body and for inconspicuously placing a negative-pressure wound therapy vacuum pump or other items.

A body pillow has an elongate body formed around an axis. An outer cover of the pillow includes a stretchy circumferential band of material disposed around the axis and to be spaced from either end of the pillow. Ends of first and second inner pillows are disposed near or under the circumferential band. The user may helically twist the body of the pillow around the axis at the circumferential band. Doing so separates the inner pillows and increases their firmness. An inner side of the outer cover may be made of a stretchy fabric that conforms to the body of the user, while outer side may be composed mostly of nonstretch material to retain the pillows' shape. The twisted and nontwisted configurations of the pillow make it an effective sleeping aid for expecting mothers during different stages of their pregnancies.

A pillow component includes a material layer having a top layer, a bottom layer and one or more sides separating the top layer from the bottom layer, and an interior spaced defined between the top layer and the bottom layer, the interior space configured to receive a filler. The material layer is formed by seamless knitting and is seamless about an entirety of a periphery extending in a first direction around the top layer, the bottom layer and the one or more sides. The characteristics of the knit material layer or fabric can be widely varied. A pillow includes the pillow component and a filler in the interior space.

A customizable cushion system is provided. The system includes a flexible outer casing having a closed rear end, a pair of closed lateral edges, and an open front end defining an interior volume therebetween. A plurality of support members are selectively insertable into the interior volume, wherein the plurality of support members comprise a substantially cylindrical structure. Upon insertion into the interior volume, the plurality of support members are in parallel alignment. A closure fastener is disposed on the open front end, wherein the closure fastener selectively closes the front end to enclose the interior volume. In some embodiments, a seam divides the interior volume into a first compartment and a second compartment.

A bed has a mattress. A first wireless charging array is positioned on a top side of the mattress nearer a head of the mattress. A pillow is configured to be positioned atop the first wireless charging array. The pillow includes a second wireless charging array located on an underside of a pillow. The second wireless charging array is configured to receive energy from the first wireless charging array. A companion device is configured to use the energy. An energy storage device is within the pillow. The energy storage device is configured to store charge received by the first wireless charging array. The energy storage device is configured to supply power to the companion device.

A pillow is provided herein which includes a cover having opposing first and second panels. A gusset perimetrically bounds, and joins, the first and second panels. The gusset is formed of an open cell construction. Compliant fill material is disposed within the cover. Advantageously, with the subject invention, a pillow is provided allowing for lateral ventilation between opposing panels. This permits a cooling effect while a user is resting or sleeping.

A pillow is provided herein which includes a cover having opposing first and second panels. A gusset perimetrically bounds, and joins, the first and second panels. The gusset is formed of an open cell construction. Compliant fill material is disposed within the cover. Advantageously, with the subject invention, a pillow is provided allowing for lateral ventilation between opposing panels. This permits a cooling effect while a user is resting or sleeping.

An apparatus capable of transforming between a sleep aid and a tote bag is an apparatus that can be used to help the user to carry various personal objects while travelling. The apparatus can also be used for comfort while the user rests during the travel. To do so, the apparatus includes a tote bag, a plurality of heating devices, and a controller. The tote bag is a transformable structure that can be configured to be used as a storage structure or as a pillow-blanket combination. The tote bag also facilitates the transformation of the apparatus between the two configurations by the user on-the-go. The plurality of heating devices provides warm and comfort to the user when the user utilizes the apparatus as a pillow-blanket combination. The controller enables the user to control the operation of the plurality of heating devices while utilizing the apparatus as a pillow-blanket combination.

A micro-encapsulated phase-change material (MEPCM), includes, by weight: 120-150 parts of a phase-change material; 25-30 parts of methyl methacrylate; 1-4 parts of methacrylic acid; 45-54 parts of butyl acrylate; 0.2-0.7 parts of an initiator; 10-12 parts of an emulsifier; and 600-700 parts of deionized water.