An absorbent article can include a bodyside liner, an outer cover, and an absorbent body disposed between the bodyside liner and the outer cover. The bodyside liner can be treated with a surfactant. A component of the absorbent article can be treated with a hydrophobically modified polymer. The hydrophobically modified polymer can be configured to interact with the surfactant upon wetting of the absorbent article when the surfactant and the hydrophobically modified polymer are in an aqueous solution to increase surface tension of the aqueous solution.

An absorbent article can include a bodyside liner, an outer cover, and an absorbent body disposed between the bodyside liner and the outer cover. The bodyside liner can be treated with a surfactant. A component of the absorbent article can be treated with a hydrophobically modified polymer. The hydrophobically modified polymer can be configured to interact with the surfactant upon wetting of the absorbent article when the surfactant and the hydrophobically modified polymer are in an aqueous solution to increase surface tension of the aqueous solution.

A lotion composition is provided. The lotion composition includes a) about 1% to about 90%, by weight, of a rheology structurant; and a b) carrier.

A lotion composition is provided. The lotion composition includes a) about 1% to about 90%, by weight, of a rheology structurant; and a b) carrier.

The present disclosure provides a composite dressing comprising a combination of porous matrix and fabric substrate wherein at least one of said porous matrix and fabric substrate is composed biomaterial(s) and wherein the fabric substrate is at least partially embedded in the porous matrix. Further, the disclosure provides a method for preparation of said composite dressing, wherein said method enables production of the composite dressing having cohesive bonding between porous matrix and fabric support without use of any adhesive, stitching or chemical crosslinking agent between the two layers. The composite dressing exhibits high peel strength in both dry and wet conditions and has applications such as hemostatic dressings for deep cavity wounds, puncture wounds, post-partum hemorrhage and internal hemostatic agents.

The present disclosure provides a composite dressing comprising a combination of porous matrix and fabric substrate wherein at least one of said porous matrix and fabric substrate is composed biomaterial(s) and wherein the fabric substrate is at least partially embedded in the porous matrix. Further, the disclosure provides a method for preparation of said composite dressing, wherein said method enables production of the composite dressing having cohesive bonding between porous matrix and fabric support without use of any adhesive, stitching or chemical crosslinking agent between the two layers. The composite dressing exhibits high peel strength in both dry and wet conditions and has applications such as hemostatic dressings for deep cavity wounds, puncture wounds, post-partum hemorrhage and internal hemostatic agents.

The disclosed technology relates to a wound dressing comprising an absorbent layer impregnated or coated with a composition comprising a chelating agent, an amphoteric surfactant, and an anionic surfactant. The invention further relates to methods and uses of the wound dressing.

An open-cell foam wound dressing comprising a formulation of an amphiphilic antiseptic and particular surfactants is provided.

An open-cell foam wound dressing comprising a formulation of an amphiphilic antiseptic and particular surfactants is provided.

Bio-ink compositions comprising bio-compatible microgels or nanogels are described. The bio-inks can comprise, for example, micro- or nanogels comprising crosslinked poly(N-isopropylacrylamide) (poly-NIPam). The bio-inks can further comprise viscosity control agents, such as poly(ethylene glycol) (PEG), and/or surface tension agents. Three-dimensional (3D) printing (e.g., piezoelectric printing) of the bio-inks can provide 3D printed materials comprising microgel or nanogel assemblies of the bio-ink compositions. These materials can be used as scaffolds for preparing biological tissues for use, for instance, in regenerative medicine.