Disclosed herein are compositions comprising an NSAID such as meloxicam and/or rizatriptan in combination with a cyclodextrin and/or a carbonate or a bicarbonate. These compositions may be orally administered, for example, to improve the bioavailability or pharmacokinetics of the NSAID for the treatment of pain such as migraine, arthritis, and other conditions. Also disclosed herein are methods of treating pain, such as migraine, comprising administering meloxicam and rizatriptan to a human being suffering from pain, such as migraine. For migraine, these methods may be particularly useful when the meloxicam and rizatriptan are administered while the human being is suffering from an acute attack of migraine pain or migraine aura. In some embodiments, the combination of meloxicam and rizatriptan may be administered in a manner that results in a T.sub.max of meloxicam of 3 hours or less.

A pharmaceutical composition comprising at least one active pharmaceutical ingredient (API) or a pharmaceutically acceptable salt thereof, a glucomannan, a first polyalkylene oxide having an average molecular weight of no more than 300,000, and a second polyalkylene oxide having an average molecular weight of at least 1,000,000 and methods of making. The pharmaceutical composition provides extended release of the API and has abuse deterrent features.

Disclosed is a novel use of a composition comprising as an active ingredient an Artemisia umbelliformis extract. A composition according to the present description shows hair follicle cell proliferation or hair growth effect by means of comprising an Artemisia umbelliformis extract. Therefore, due to said effect, the Artemisia umbelliformis extract has hair loss prevention or hair growth stimulation effect.

Thin solid tablet compositions containing an active permeant can be used in methods for administering the permeant to a subject. The thin solid tablet can be incorporated into a patch. The patch can be used to administer the permeant, such as a drug and an excipient, to the subject by transdermal microporation.

Provided herein are methods of treating nalbuphine-treatable disorders in a hepatically impaired patient.

A delivery system for administration to a patient of Fenobam, its hydrates, and salts optimizes solubility and dissolution properties of Fenobam, its hydrates, and salts using either microemulsions, solid dispersions, cyclodextrin, gastroretentives, enteric coatings, and sustained delivery techniques to provide a vehicle for oral administration of these drugs.

The present invention provides a dosage form, particularly a tamper resistant dosage form, comprising: melt-extruded particulates comprising a drug; and a matrix; wherein said melt-extruded particulates are present as a discontinuous phase in said matrix.

A composition includes a therapeutically effective oral pharmaceutical dosage form that becomes buoyant upon contact with gastric fluid. The dosage form includes an active ingredient combination including an amino acid source and a zinc source, an anionic polymer, an effervescent agent, and a pH buffer. The dosage form is effective for releasing the active ingredient combination while buoyant on gastric fluid.

The invention relates to a time controlled, immediate release drug delivery system for oral administration of a first active ingredient to a subject in need thereof. The invention additionally relates to a dual drug delivery device, comprising the time controlled, immediate release drug delivery system according to the invention, further comprising a second coating comprising a second active ingredient.

The present invention relates to a process for spray-freeze-drying (SFD) a dispersion of polyelectrolyte complex (PEC) nanoparticles loaded with a protein drug, which yields a powdered product with adequate flowability properties that may readily be processed further into solid dosage forms such as tablets or capsules. The mean particle size of PEC nanoparticles obtained after redispersion of SFD powder or pharmaceutical compositions made from said powder in water is preserved in the nanometer range (<1000 nm), and so is the protein biological activity.