An object of the present invention is to provide a composition containing at least microcapsules and cell structures, where the composition can exhibit a high treatment effect in a case of being transplanted into a living body. There is provided a composition including at least (a) a microcapsule containing a polymer hydrogel; and (b) a cell structure containing a biocompatible polymer block and a cell, in which a plurality of biocompatible polymer blocks are arranged in gaps between a plurality of cells, where at least a part of the cell structures are encapsulated in the microcapsules.

An encapsulated bacteriophage formulation and a method for encapsulating bacteriophages and bacteriophage-related products in polymeric microcapsules is provided. Some embodiments of the method of producing the encapsulated bacteriophages involves a water-in-oil-in-water double emulsion.

The present invention relates to emulsion-templated silica micro and nano-capsules- and methods for making them. In particular, the template emulsion is stabilized by a biosurfactant that also assists in nucleating the silica shell Mineralizing biosurfactants and stabilized micro- and nano-emulsions useful in forming the emulsion-templated micro- and nano-capsules, and methods for the use of the silica micro- and nano-capsules are also described.

A hydrogel delivery composition and method, including degradable microcapsules suspended in a degradable thermo-responsive hydrogel. The hydrogel is thermo-responsive at a physiological temperature and changes after application to a more solid state due to body temperatures. The composition includes one or more treatment agents to be released over time as the composition degrades. The composition can be varied to modify the structure and/or release of the treatment agent. The degradable microcapsules include one or more of magnesium hydroxide (Mg(OH).sub.2), bovine serum albumin (BSA), polyethylene glycol (PEG), and sucrose to improve release duration.

Methods are provided for promoting the adsorption of an active agent to microparticles by modifying the structural properties of the active agent in order to facilitate favorable association to the microparticle.

A microcapsule includes an active component encapsulated within a polymerized hydrolyzed protein shell. The microcapsule has an average diameter that is less than one hundred micrometers as determined by a laser diffractometer.

Methods are provided for promoting the adsorption of an active agent to microparticles by modifying the structural properties of the active agent in order to facilitate favorable association to the microparticle.

A cold-gelated mono-nuclear microencapsulate comprises a unitary liquid core encapsulated within a gastro-resistant, ileal-sensitive, polymerized denatured protein membrane shell, wherein the liquid core comprises a GLP-1 release stimulating agent in a substantially solubilised form. The GLP-1 release stimulating agent is a native protein selected from native dairy protein, native vegetable protein or native egg protein.

This invention discloses methods and composition to form biodegradable polymer implant arrays in the live tissue. Artificial cavities are created in the live tissue by using laser ablation, oscillating needle, microneedle array and other methods. The cavities are then filled with biodegradable polymer solution. The solvent in the polymer solution is dissipated in the tissue to form a biodegradable polymer implant in artificial cavities. The cavities and implants formed are arranged to form of an array of implants. The biodegradable polymer in the cavity can also be loaded with drug to form biodegradable drug delivery array in the live tissue.

The disclosure provides methods of preventing or treating Friedreich's ataxia in a mammalian subject, reducing risk factors, signs and/or symptoms associated with Friedreich's ataxia, and/or reducing the likelihood or severity of Friedreich's ataxia. The methods comprise administering to the subject an effective amount of an aromatic-cationic peptide to e.g., reduce oxidative stress, increase mitochondrial metabolism, or a combination thereof.