A therapy pack system provides a reusable self-adhering therapy pack to skin. The therapy pack may be for example, an ice pack, heat pack or hot and cold pack. A sticky polymer gel is mounted onto a polymer casing of the therapy pack. The polymer gel is re-usable to attach the therapy pack to a user's skin at the site needing therapy. The polymer gel also buffers the skin from heat or freezer burn associated with applying a hot/cold pack to skin for an extended period. A chloride based compound may be added to the polymer gel to prevent the gel from freezing. In some embodiments, a non-woven fabric patch may support the polymer gel adhesive providing an additional layer of protection to the skin while simultaneously allowing the gel to self-adhere the therapy pack to the user.

A moisture permeable composite material for a wide variety of applications including without limitation prosthetic liners, orthotic liners, clothing, space suits and environmental suits comprising: an inner layer comprising a hydrogel, or a thin tough hydrogel membrane, or dual network hydrogel; and an outer layer comprising a porous elastomer or an open cell foam.

A polymer composite of dissimilar polymers covalently bonded at the interface is disclosed. A method for bonding dissimilar polymers includes providing a first precursor to a hydrogel polymer network comprising a first coupling agent; providing a second precursor to a second polymer network comprising a second coupling agent, wherein the hydrogel polymer network and the second polymer network are different; initiating polymerization of the first precursor to form a hydrogel polymer network, wherein the first coupling agent is incorporated into the polymer network with a negligible amount of condensation; initiating polymerization of the second precursor to form a second polymer network, wherein the second coupling agent is incorporated into the second polymer network with a negligible amount of condensation; contacting one of the first hydrogel precursor or the hydrogel polymer network with one of the second polymer precursor or second polymer networks and initiating condensation between the first and second coupling agents to form a covalent bond.

The present invention is directed to a curable polymer comprising: a base acrylic monomer (monomer A); a monomer with bioactive functionality (monomer B); a monomer containing a cross-linker (monomer C). The present invention also relates to a method of making a polymer coating on a solid support. The present invention also relates to a method of preserving a product.

The present application provides a screen protector and a method for applying a screen protector, including a release film, a hydrogel film, a silicone protective film, and a release liner sequentially stacked, an edge of the release film is provided with positioning lug, the silicone protective film is provided with a die-cutting line, an edge of the first part protrudes outwards to form a first lug, and an edge of the second part protrudes outwards to form a second lug. The silicone protective film is divided into two parts, tearing off the first part and tearing off the second part are independent from each other, avoiding the movement of the screen protector due to the large amplitude of the tearing film during the tearing process, the deviation occurring during the applying process of the screen protector is avoided, and the applying efficiency of the screen protector is improved.

Disclosed is a fluidic device including at least: a) a solid matrix; b) a textile component, embedded in the matrix and mechanically cohesive with the matrix; c) at least one channel embedded in the matrix and entangled with the textile component, the channel being at least partly open. A method for making a fluidic device includes providing a textile component including support fibers and at least a movable fiber entangled with the textile, embedding at least part of the textile and part of the movable fiber, in a matrix precursor material, applying a treatment in order to obtain a solid matrix.

The present invention relates to a barrier for preventing the propagation of a thermal event within a multi-cell battery module (so-called propagation barrier), comprising a heat-absorbing protective layer based on a hydrogel and a reinforcing filling material. Furthermore, the invention relates to a battery module which comprises the barrier, and to the use of the barrier to compensate for volume fluctuations within a battery module. In addition, a method for producing the propagation barrier is also specified.

The presented invention is directed to an apparatus and methods of thermal treatment for a body and/or limb of a subject. Embodiments of the invention include a composite for maintaining temperature and moisture levels surrounding the body or limb to which the composite may be applied. A preferred embodiment of the invention includes a moisture retention material, a temperature retention material, and a vapor barrier material.

Provided is an organ model having a property such that each layer suitably peels off, a property such that sliding or a sense of catching is present besides a sense of elasticity that is felt when a surgical knife cuts the organ model open, and a property such that ligation can be performed without burying of a suture thread, and a property such that a knot of the thread gets caught on the organ model. An organ model being a laminated body in which plural layers each formed of a hydrogel material are laminated, and one or more of the layers is each a fiber group-containing layer in which fiber groups are approximately continuously present inside the layer and over the plane of the layer.

A composite material including a substrate, a porous body provided on the substrate, and insulating polymers starting from a surface of the substrate and extending inside the porous body, and a method of producing the composite material.