Abstract: The present invention relates to the use of mono- and bis nitrosylated propanediols, and compositions and formulations comprising the same, in methods for the treatment of a microbial infection.

Abstract: The present invention relates to methods of treating a condition wherein NO has a beneficial effect, wherein such treatment comprises administering certain mono- and/or bis nitrosylated propanediols, including compositions and formulations thereof, wherein administration of said compounds, compositions or formulations is indirect to the pulmonary circulation and/or the systemic circulation of a patient in need thereof.

Abstract: Disclosed is a process for the synthesis of mono- and bis-nitrosylated propanediols, as well as compositions and pharmaceutical formulations that includes the compounds. The process proceeds by reacting a corresponding propanediol that is not nitrosylated with a source of nitrite, optionally in the presence of a suitable acid. When the source of nitrite is an organic nitrite, reacting step is performed in a suitable organic solvent, and when the source of nitrite is an inorganic nitrite, the reacting step is performed in a bi-phasic solvent mixture comprising an aqueous phase and a non-aqueous phase. Also disclosed are methods of treating a condition wherein administration of nitric oxide (NO) has a beneficial effect by administering said compounds, compositions or formulations.

Abstract: Gaseous nitric oxide (NO) can be delivered to a mammal for prophylactic or therapeutic purposes using a composition capable of delivering NO, comprising a compound capable of forming a reversible bond or association with NO. Methods for the manufacture and use of said composition are disclosed.

Abstract: Gaseous nitric oxide (NO) can be delivered to a mammal for prophylactic or therapeutic purposes using a composition capable of delivering NO, comprising a compound capable of forming a reversible bond or association with NO. Methods for the manufacture and use of said composition are disclosed.

Abstract: Pulmonary embolism in a human patient can be detected or confirmed by monitoring the level of endogenous NO in expired air, comparing the measured level with baseline values previously obtained for the same patient or baseline values representing a healthy population. The method can be used alone, or as a supplemental or adjunct step in traditional methods for diagnosing pulmonary embolism. Analysis of the obtained NO value, with consideration of the flow and resistance, can be used to indicate the severity of the pulmonary embolism.