Abstract: This disclosure relates to particles (e.g., nanoparticles and microparticles) that display multiple functionalized surface domains in a controlled mosaic pattern. The disclosure also provides simple methods to create various particles that have multiple functionalized surface domains while allowing the use of a wide variety of diverse core structures. The multiple functionalized domains provide controllable particle binding and orientation, and controlled and sustained drug release profiles.

Abstract: This disclosure relates to particles (e.g., nanoparticles and microparticles) that display multiple functionalized surface domains in a controlled mosaic pattern. The disclosure also provides simple methods to create various particles that have multiple functionalized surface domains while allowing the use of a wide variety of diverse core structures. The multiple functionalized domains provide controllable particle binding and orientation, and controlled and sustained drug release profiles.

Abstract: This disclosure relates to particles (e.g., nanoparticles and microparticles) that display multiple functionalized surface domains in a controlled mosaic pattern. The disclosure also provides simple methods to create various particles that have multiple functionalized surface domains while allowing the use of a wide variety of diverse core structures. The multiple functionalized domains provide controllable particle binding and orientation, and controlled and sustained drug release profiles.

Abstract: Peptides that selectively bind to antigens exposed in vascular disease or dysfunction have been identified by biopanning a phage library. The ligands are useful when attached to a substrate to be in contact with endothelial surfaces, especially those where drug delivery is utilized, such as following angioplasty, with release from a drug delivery reservoir in a medical device such as a stent, or by administration intravenously in the form of nano or microparticles, although the peptides may also be used with other medical devices or substrates, for targeting or to increase adhesion to endothelial surfaces. The nanoparticle technology can be used to treat injured vasculature, a clinical problem of primary importance. The targeted nanoparticles are also useful in the treatment of other diseases and disorders such as oncologic and regenerative diseases and indications where neoangiogenesis is commonly observed.