Abstract:
Provided are peptides that can inhibit collagen synthesis, processing and/or secretion from scar forming cells or fibroblasts. Also provided are methods for using the peptides to produce an anti-fibrotic, anti-scarring, anti-inflammatory, and/or pro-regenerative effect, e.g., on an injured or diseased tissue.
Abstract:
Described herein is the finding that hyaluronan antagonists that inhibit hyaluronan signaling are capable of inhibiting airway inflammation and airway hyperresponsiveness (AHR). The present disclosure provides a method of preventing or reducing AHR in a subject suffering from or at risk for AHR by administering a hyaluronan antagonist. Also provided is a method of treating an airway disease or disorder in a subject by administering a hyaluronan antagonist. Hyaluronan antagonists include, for example, heparosan and hyaluronan oligosaccharides (oHAs). In some embodiments, the hyaluronan antagonist is administered locally to the airway, such as with an inhaler or nebulizer.
Abstract:
The present invention relates to the analysis of modified LDL in the context of immune complexes. In particular, ox-LDL and AGE-LDL are shown to predict the development of coronary artery disease and other micro- and macrovascular disorders, particularly in the context of diabetes.
Abstract:
The present invention relates to the analysis of modified LDL in the context of immune complexes. In particular, ox-LDL and AGE-LDL are shown to predict the development of coronary artery disease and other micro- and macrovascular disorders, particularly in the context of diabetes.
Abstract:
Provided are antibacterial and antimicrobial surface coatings and dental materials by utilizing the antimicrobial properties of copper chalcogenide and/or copper halide (CuQ, where Q=chalcogens including oxygen, or halogens, or nothing). An antimicrobial barrier is created by incorporation of CuQ nanoparticles of an appropriate size and at a concentration necessary and sufficient to create a unique bioelectrical environment. The unique bioelectrical environment results in biocidal effectiveness through a multi-factorial mechanism comprising a combination of the intrinsic quantum flux of copper (Cu0, Cu1+, Cu2+) ions and the high surface-to-volume electron sink facilitated by the nanoparticle. The result is the constant quantum flux of copper which manifests and establishes the antimicrobial environment preventing or inhibiting the growth of bacteria. The presence of CuQ results in inhibiting or delaying bacterial destruction and endogenous enzymatic breakdown of the zone of resin inter-diffusion, the integrity of which is essential for dental restoration longevity.
Abstract:
Disclosed herein are compositions and methods for promoting the repair and regeneration of injured tissues, such as injuries resulting from ischemic damage.
Abstract:
Methods for the treatment of cancers involving dysregulation of thromboxane receptor β (TP-β) are provided, including in certain aspects methods for diagnosing such cancers. Specific cancers included are genitourinary cancers, gastrointestinal cancers and leukemias.
Abstract:
Provided herein are compositions and methods for use in promoting wound healing and tissue regeneration following tissue injury in a subject.
Abstract:
A composition comprising a plurality of cell aggregates for use in producing engineered organotypic tissue by organ printing. A method of making a plurality of cell aggregates comprises centrifuging a cell suspension, extruding the resulting pellet through an orifice, and cutting the extruded pellet into pieces. Apparatus for making cell aggregates comprises an extrusion system and a cutting system. In a method of organ printing, a plurality of cell aggregates are embedded in a polymeric or gel matrix and allowed to fuse to form a desired three-dimensional tissue structure. An intermediate product comprises at least one layer of matrix and a plurality of cell aggregates embedded therein in a predetermined pattern. Modeling methods predict the structural evolution of fusing cell aggregates for combinations of cell type, matrix, and embedding patterns to enable selection of organ printing process parameters for use in producing an engineered tissue having a desired three-dimensional structure.