Abstract: Multi-dose formulations for bortezomib are presented in which bortezomib has significantly improved stability. Especially preferred formulations include those in which bortezomib is in a liquid form suitable for injection, wherein the solvent system predominantly comprises propylene glycol. In other preferred aspects, bortezomib is present as a Lewis donor-acceptor complex with a hetero-bifunctional Lewis base.

Abstract: Multi-dose formulations for bortezomib are presented in which bortezomib has significantly improved stability. Especially preferred formulations include those in which bortezomib is in a liquid form suitable for injection, wherein the solvent system predominantly comprises propylene glycol. In other preferred aspects, bortezomib is present as a Lewis donor-acceptor complex with a hetero-bifunctional Lewis base.

Abstract: A liquid pharmaceutical compositions comprising Aprepitant is preferably prepared as an oral suspension dosage form for the prevention and control of acute and delayed chemotherapy induced nausea and vomiting, and/or for prevention of postoperative nausea and vomiting.

Abstract: A process for minimizing formation of a highest degradation product during moist heat sterilization of a drug solution of an oxidation susceptible active pharmaceutical ingredient is provided. The oxidation susceptible active pharmaceutical ingredient is mixed with excipients and deoxygenated water to prepare a non-sterile drug solution. The non-sterile drug solution is filled into a moist heat sterilizable flexible infusion bag. The flexible infusion bag with the non-sterile drug solution is terminally moist heat sterilized at a preset air overpressure between about 0.2 bar to about 1.2 bar to obtain a parenteral drug product. The highest degradation product in the parenteral drug product is less than 0.5% by weight of a labeled amount of the oxidation susceptible active pharmaceutical ingredient in the parenteral drug product.

Abstract: A lyophilized bendamustine composition consisting of bendamustine hydrochloride, an aqueous solvent, and optionally an excipient, and a method of preparation thereof for treating a condition in a subject are provided. The aqueous solvent includes, for example, water, an acid, a base, or a salt, etc. The excipient includes at least one cryoprotectant, for example, sucrose, trehalose, mannitol, etc. A pre-lyophilization bendamustine composition is lyophilized, for example, by freezing, primary drying, annealing, secondary drying, condensed cooling and evacuation at preset temperatures to obtain the lyophilized bendamustine composition as a cake, a powder, or a solid concentrate. The lyophilized bendamustine composition is free of a non-aqueous solvent. Reconstitution is performed by mixing the lyophilized bendamustine composition with an aqueous solvent for about 30 seconds to 300 seconds. The reconstituted bendamustine product containing about 0.2 wt % to about 2.

Abstract: The invention relates to pharmaceutical compositions that provide improved solubility and stability for peptide epoxy ketones. More specifically, the invention relates to pharmaceutical compositions comprising the peptide epoxy ketone proteasome inhibitor carfilzomib.

Abstract: An aqueous stable and ready-to-use formulation of aprepitant is prepared. Especially preferred formulations comprise a synergistic combination of a co-solvent and a surfactant and may further include a secondary co-solvent. Among other advantages of contemplated formulations, aprepitant is dissolved at high concentrations and remains dissolved and stable, even over prolonged periods of time.

Abstract: Multi-dose formulations for bortezomib are presented in which bortezomib has significantly improved stability. Especially preferred formulations include those in which bortezomib is in a liquid form suitable for injection, wherein the solvent system predominantly comprises propylene glycol. In other preferred aspects, bortezomib is present as a Lewis donor-acceptor complex with a hetero-bifunctional Lewis base.

Abstract: Multi-dose formulations for bortezomib are presented in which bortezomib has significantly improved stability. Especially preferred formulations include those in which bortezomib is in a liquid form suitable for injection, wherein the solvent system predominantly comprises propylene glycol. In other preferred aspects, bortezomib is present as a Lewis donor-acceptor complex with a hetero-bifunctional Lewis base.

Abstract: Multi-dose formulations for bortezomib are presented in which bortezomib has significantly improved stability. Especially preferred formulations include those in which bortezomib is in a liquid form suitable for injection, wherein the solvent system predominantly comprises propylene glycol. In other preferred aspects, bortezomib is present as a Lewis donor-acceptor complex with a hetero-bifunctional Lewis base.

Abstract: Multi-dose formulations for bortezomib are presented in which bortezomib has significantly improved stability. Especially preferred formulations include those in which bortezomib is in a liquid form suitable for injection, wherein the solvent system predominantly comprises propylene glycol. In other preferred aspects, bortezomib is present as a Lewis donor-acceptor complex with a hetero-bifunctional Lewis base.

Abstract: Multi-dose formulations for bortezomib are presented in which bortezomib has significantly improved stability. Especially preferred formulations include those in which bortezomib is in a liquid form suitable for injection, wherein the solvent system predominantly comprises propylene glycol. In other preferred aspects, bortezomib is present as a Lewis donor-acceptor complex with a hetero-bifunctional Lewis base.

Abstract: Provided is a method of treating a patient having a tissue that is subject to an ischemic event. The method is conducted by parenterally administering a formulation containing a halogenated volatile anesthetic in an amount effective to improve the tissue's resistance to or tolerance of the ischemic event. In preferred embodiment of the invention, the amount of the formulation administered to the patient is sub-anesthetic. The formulation can be administered prior to, concurrently with, or after the ischemic event. The method can be used, for example, for treatment of patients having myocardial or neuronal tissue that is subject to an ischemic event.

Abstract: The present invention provides methods and compositions for delivery of taxanes in stable oil-in-water emulsion. The inventive emulsion formulation includes an oil phase, aqueous and emulsifier phases. The oil portion includes all or substantial amount of taxane, vegetable oil and medium chain triglycerides; aqueous phase includes an emulsion stabilizer; emulsifier phase reduces the surface tension between oil and aqueous phases to produce a stable oil-in-water emulsion. The inventive compositions produce minimal side effects upon administration.

Abstract: The present invention provides a composition and prodrug for targeted drug delivery to the central nervous system of a patient. The inventive composition and prodrug include a pharmaceutically acceptable active agent and at least one protein selected from the group consisting of a fimbrial adhesin protein, a membrane protein, and combinations thereof. The inventive compositions and prodrugs of the present invention selectively target the blood-brain barrier and deliver hydrophilic and lipophilic active agents of varying sizes to the central nervous system.

Abstract: Stable, pharmaceutical compositions including a synthetic motilin-like peptide in a buffered solution are disclosed. The composition provides for a peptide that remains stable and substantially retains its initial potency during extended storage and after steam sterilization.

Abstract: Stable, pharmaceutical compositions including a synthetic motilin-like peptide in a buffered aqueous solution or in an unbuffered aqueous solution are disclosed. The composition provides for a peptide that remains stable and substantially retains its initial potency during extended storage and after steam sterilization.

Abstract: The invention is directed to a process for preparing a pharmaceutical formulation containing two or more active pharmaceutical ingredients comprising: (a) contacting two or more active pharmaceutical ingredients with a supercritical fluid to form a supercritical fluid solution; and (b) separating the active ingredients from the supercritical solution to yield a powder precipitate. Preferably, the pharmaceutical formulation prepared according to the invention contains a combination of two anti-infective agents or two anticancer agents. The invention is further directed to a process for preparing a pharmaceutical formulation containing two or more active pharmaceutical ingredients comprising: (a) combining two or more active ingredients with a cosolvent to form a solution; (b) contacting the solution with a supercritical fluid; and (c) recovering the precipitate in a powder form.

Abstract: The invention is directed to a process for preparing a pharmaceutical formulation containing two or more active pharmaceutical ingredients comprising: (a) combining two or more active pharmaceutical ingredients with a supercritical fluid to form a supercritical fluid solution; and (b) separating the active ingredients from the supercritical solution to yield a dry powder precipitate. Preferably, the pharmaceutical formulation prepared according to the invention contains a combination of two anti-infective agents. The invention is further directed to a process for preparing a pharmaceutical formulation containing two or more active pharmaceutical ingredients comprising: (a) combining two or more active ingredients with a cosolvent to form a solution; (b) mixing the solution with a supercritical fluid; and (c) recovering the precipitate in a dry powder form.

Abstract: Provided is a method of treating a patient having a tissue that is subject to an ischemic event. The method is conducted by parenterally administering a formulation containing a halogenated volatile anesthetic in an amount effective to improve the tissue's resistance to or tolerance of the ischemic event. In preferred embodiment of the invention, the amount of the formulation administered to the patient is sub-anesthetic. The formulation can be administered prior to, concurrently with, or after the ischemic event. The method can be used, for example, for treatment of patients having myocardial or neuronal tissue that is subject to an ischemic event.