The present invention provides acoustically activated liposome compositions for use as drug delivery vehicles, and to methods for drug release and drug delivery for therapeutic applications including Parkinson's disease and epilepsy.

The invention generally relates to polymer-based nano-structures. More particularly, the invention relates to novel, surface-functionalized, guest-host polymer nano-assemblies and nano-delivery vehicles useful in diverse fields including drug delivery, diagnostics and specialty materials. The nano-assemblies and nano-delivery vehicles of the invention are afforded via simplify and reliable approaches.

Provided herein are liposomal vesicles comprising at least a first lipid bilayer and a second lipid bilayer, and a plurality of crosslinkages between the first lipid bilayer and the second lipid bilayer, wherein the plurality of crosslinkages comprise boronic ester or thioketal bonds. Also provided are pharmaceutical compositions comprising the liposomal vesicles described herein and a pharmaceutically acceptable excipient. Also provided are methods of making and using the liposomal vesicles. Thus, a method of treating a subject with a disease comprising administering to the subject a pharmaceutical composition comprising the liposomal vesicles is described herein. Methods of making multilamellar liposomal vesicles responsive to reactive oxygen species are also provided.

This invention relates to methods of preparing nanotherapeutic compounds and compositions comprising nanotherapeutic compounds. The nanotherapeutic compounds prepared according to the methods provided herein are useful for the treatment of disease, for example, cancer, in a subject in need thereof.

The invention relates to a novel drug delivery vehicle. Various embodiments of the invention provide a hybrid polymerized liposomal nanoparticle comprising both polymerizable lipids and non-polymerizable lipids. Therapeutic agents can be loaded into the polymerized liposomal nanoparticle and targeting agents can be conjugated to the surface of the polymerized liposomal nanoparticle. Also described in the invention are methods, compositions and kits that utilize the hybrid polymerized liposomal nanoparticle to treat disease conditions such as various cancers.

Provided herein is technology relating to incorporation of drugs into liposomes and particularly, but not exclusively, to methods for incorporating drugs into liposomes using a weak base and related compositions.

Provided, among other things, is a method of treating or ameliorating pulmonary infection in a cystic fibrosis patient comprising pulmonary administration of an effective amount of a liposomal/complexed antiinfective to the patient, wherein the (i) administrated amount is 50% or less of the comparative free drug amount, or (ii) the dosing is once a day or less, or (iii) both.

Provided herein are encapsulated liposomes comprising a lipid bilayer, a first polyethylene glycol (PEG) corona, a targeting molecule and a second PEG corona. The second, encapsulating PEG corona can be reversibly linked to the first PEG corona. Also provided are pharmaceutical compositions comprising the encapsulated liposomes and methods of treating a subject with a disease characterized by production of reactive oxygen species (ROS) with the compositions. Also provided are methods of making the encapsulated liposomes disclosed herein.

A magnetic nanoparticle including a TRPV1 agonist, as well as methods of preparation and use, are described herein. A magnetically responsive pharmaceutical can include a core region having a magnetic nanoparticle (MNPs) and a TRPV1 protein agonist. Further, an exterior coating comprising a polymer can be formed around the core region. The magnetically responsive pharmaceutical can be administered to a recipient and directed to a target region using an external magnetic field.

A delivery device for an active agent comprises nanoparticles based on a biopolymer such as starch. The delivery device may also be in the form of an aptamer-biopolymer-active agent conjugate wherein the aptamer targets the device for the treatment of specific disorders. The nanoparticles may be made by applying a high shear force in the presence of a crosslinker. The particles may be predominantly in the range of 50-150 nm and form a colloidal dispersion of crosslinked hydrogel particles in water. The biopolymer may be functionalized. The aptamer may be conjugated directly to the cross-linked biopolymers. The active agent may be a drug useful for the treatment of cancer. The delivery device survives for a period of time in the body sufficient to allow for the sustained release of a drug and for the transportation and uptake of the conjugate into targeted cells. However, the biopolymer is biocompatible and resorbable.