Drug delivery devices and methods are provided for administering gemcitabine to a patient in need of treatment of bladder cancer by intravesically administering gemcitabine into the bladder of the patient to achieve a sustained concentration of the gemcitabine in urine in the bladder sufficient to produce a therapeutically effective concentration of the gemcitabine in the tissues of the bladder. In embodiments, the local administration into the patient's bladder is at a mean average amount of from 1 mg/day to about 300 mg/day of the gemcitabine (FBE).

The present disclosure provides programmable osmotic-controlled oral compositions providing delayed release of a therapeutically acceptable amount of a drug. In certain embodiments, the programmable osmotic-controlled compositions of the disclosure provide a lag time that is independent of the presence or absence of food, type of food, pH, gastric emptying, and volume of gastric fluid. The programmable osmotic-controlled oral compositions of the disclosure comprise a multilayer core comprising a drug for controlled release, wherein the core is coated with a semipermeable membrane comprising an orifice and, optionally, an immediate release coating, comprising a drug for immediate release, over the semipermeable membrane. The multilayered core comprises a pull layer containing the drug and a push layer. The pull layer comprises at least two layers: a placebo layer for providing a desired lag time for the drug release; and an active layer containing the drug and providing a delayed controlled release of the drug. The compositions of the disclosure can be programmed to provide a desired and precise lag time, and release drug, after the lag time, at a rhythm, e.g., that matches the human circadian rhythm of a condition's symptoms and/or of the individual being treated in the application of the therapy to optimize therapeutic outcome and minimize side effects.

The present invention provides an inhalation-type pharmaceutical composition for gout and preparation method thereof, comprising a first gas and an atomized medicine. The first gas comprises hydrogen. The gas volume concentration of hydrogen in the inhalation-type pharmaceutical composition is between 2 to 96%. The atomized medicine is selected from a group comprising colchicine, allopurinol, probenecid, sulfinpyrazone, and any combination thereof. The inhalation-type pharmaceutical composition of the present invention can remove harmful radicals in the body of the patient through the use of hydrogen while also increases the absorption effect of the medicine for the patient by using an atomized medicine. At the same time, because the use of the small amount of the vaporized pharmaceutical liquid can indirectly reduce the side effects on the user.

A method for treating an intervertebral disc of a subject is provided, the method including delivering a growth factor to a nucleus pulposus of the intervertebral disc. At least one intra-pulposus exposed electrode surface is implanted in the nucleus pulposus. At least one extra-pulposus exposed electrode surface is implanted in a body of the subject outside the nucleus pulposus. The growth factor is supported by activating control circuitry to drive the intra-pulposus and the extra-pulposus exposed electrode surfaces to electroosmotically drive nutrient-containing fluid into the nucleus pulposus. Other embodiments are also described.

This invention relates to pharmaceutical dosage forms for delivery of drugs susceptible to abuse, such as, for example, oxycodone and/or oxymorphone.

A fluid pumping system may include an electroosmotic pump; and a separation member provided at least one end of the electroosmotic pump, and configured to separate the fluid and a transfer target fluid. The electroosmotic pump may include: a membrane that allows a fluid to move therethrough; and a first electrode and a second electrode which are respectively provided at two opposite sides of the membrane, and each of which is formed of a porous material or has a porous structure to allow a fluid to move therethrough; each of the first electrode and the second electrode may be made of porous carbon only; and an electrochemical reaction of the first electrode and the second electrode may take place as a cation is moved in a direction whereby a charge balance is established.

Disclosed are methods, devices and materials for the in situ formation of a nerve cap and/or a nerve wrap to inhibit neuroma formation following planned or traumatic nerve injury. The method includes the steps of identifying a severed end of a nerve, and positioning the severed end into a cavity defined by a form. A transformable media is introduced into the form cavity to surround the severed end. The media is permitted to undergo a transformation from a first, relatively flowable state to a second, relatively non flowable state to form a protective barrier surrounding the severed end. The media may be a hydrogel, and the transformation may produce a synthetic crosslinked hydrogel protective barrier. The media may include at least one anti-regeneration agent to inhibit nerve regrowth

The present invention relates to a method of treating diabetes Type II by oral delivery of butyric acid, and a DPP-IV inhibitor such as vildagliptin only to the ileum bypassing the stomach, duodenum and jejunum.

The present invention relates to oral sustained release formulations of tofacitinib and pharmaceutical acceptable salts thereof. The formulations described herein have desirable pharmacokinetic characteristics.

Provided are immediate or prolonged administration of certain potassium ATP (K.sub.ATP) channel openers to a subject to achieve novel pharmacodynamic, pharmacokinetic, therapeutic, physiological, metabolic and compositional outcomes in the treatment of diseases or conditions involving K.sub.ATP channels. Also provided are pharmaceutical formulations, methods of administration and dosing of K.sub.ATP channel openers that achieve these outcomes and reduce the incidence of adverse effects in treated individuals. Further provided are method of co-administering K.sub.ATP channel openers with other drugs to treat diseases of humans and animals.