Abstract: The invention provides methods to modulate hypoxia-mediated tumor immunity by administration of an O2 carrier polypeptide (e.g., an H-NOX protein). The methods of the invention target both hypoxia inducible factor 1 alpha (HIF-1?) pathways and non-HIF-1? pathways of tumor immunity. Such methods are useful in the treatment of a wide variety of cancers and may be used alone or in combination with other anti-cancer therapies.

Abstract: Described herein are methods for treating cardiovascular and pulmonary conditions, e.g., those associated with hypoxia, or treating a subject undergoing cardiac or respiratory arrest or cardiopulmonary resuscitation, using an H-NOX protein (or a mixture of H-NOX proteins), or using a combination of an H-NOX protein (or a mixture of H-NOX proteins) and a catecholamine (such as epinephrine or norepinephrine). Also described are compositions comprising an H-NOX protein (or a mixture of H-NOX proteins) and a catecholamine (such as epinephrine or norepinephrine).

Abstract: H—NOX proteins are mutated to exhibit improved or optimal kinetic and thermodynamic properties for blood gas O2 delivery. The engineered H—NOX proteins comprise mutations that impart altered O2 or NO ligand-binding relative to the corresponding wild-type H—NOX domain, and are operative as physiologically compatible mammalian blood O2 gas carriers. The invention also provides pharmaceutical compositions, kits, and methods that use wild-type or mutant H—NOX proteins for the treatment of any condition for which delivery of O2 is beneficial.

Abstract: The invention provides methods to modulate hypoxia-mediated tumor immunity by administration of an O2 carrier polypeptide (e.g., an H-NOX protein). The methods of the invention target both hypoxia inducible factor 1 alpha (HIF-1?) pathways and non-HIF-1? pathways of tumor immunity. Such methods are useful in the treatment of a wide variety of cancers and may be used alone or in combination with other anti-cancer therapies.

Abstract: H-NOX proteins are mutated to exhibit improved or optimal kinetic and thermodynamic properties for blood gas O2 delivery. The engineered H-NOX proteins comprise mutations that impart altered O2 or NO ligand-binding relative to the corresponding wild-type H-NOX domain, and are operative as physiologically compatible mammalian blood O2 gas carriers. The invention also provides pharmaceutical compositions, kits, and methods that use wild-type or mutant H-NOX proteins for the treatment of any condition for which delivery of O2 is beneficial.

Abstract: H-NOX proteins are mutated to exhibit improved or optimal kinetic and thermodynamic properties for blood gas O2 delivery. The engineered H-NOX proteins comprise mutations that impart altered O2 or NO ligand-binding relative to the corresponding wild-type H-NOX domain, and are operative as physiologically compatible mammalian blood O2 gas carriers. The invention also provides pharmaceutical compositions, kits, and methods that use wild-type or mutant H-NOX proteins for the treatment of any condition for which delivery of O2 is beneficial.

Abstract: H-NOX proteins are mutated to exhibit improved or optimal kinetic and thermodynamic properties for blood gas NO delivery. The engineered H-NOX proteins comprise mutations that impart altered NO or O2 ligand-binding relative to the corresponding wild-type H-NOX domain, and are operative as physiologically compatible mammalian blood NO gas carriers. The invention also provides pharmaceutical compositions, kits, and methods that use wild-type or mutant H-NOX proteins for the treatment of any condition for which delivery of NO is beneficial.

Abstract: H-NOX proteins are mutated to exhibit improved or optimal kinetic and thermodynamic properties for blood gas O2 delivery. The engineered H-NOX proteins comprise mutations that impart altered O2 or NO ligand-binding relative to the corresponding wild-type H-NOX domain, and are operative as physiologically compatible mammalian blood O2 gas carriers. The invention also provides pharmaceutical compositions, kits, and methods that use wild-type or mutant H-NOX proteins for the treatment of any condition for which delivery of O2 is beneficial.

Abstract: H-NOX proteins are mutated to exhibit improved or optimal kinetic and thermodynamic properties for blood gas NO delivery. The engineered H-NOX proteins comprise mutations that impart altered NO or O2 ligand-binding relative to the corresponding wild-type H-NOX domain, and are operative as physiologically compatible mammalian blood NO gas carriers. The invention also provides pharmaceutical compositions, kits, and methods that use wild-type or mutant H-NOX proteins for the treatment of any condition for which delivery of NO is beneficial.

Abstract: H-NOX proteins are mutated to exhibit improved or optimal kinetic and thermodynamic properties for blood gas NO delivery. The engineered H-NOX proteins comprise mutations that impart altered NO or O2 ligand-binding relative to the corresponding wild-type H-NOX domain, and are operative as physiologically compatible mammalian blood NO gas carriers. The invention also provides pharmaceutical compositions, kits, and methods that use wild-type or mutant H-NOX proteins for the treatment of any condition for which delivery of NO is beneficial.

Abstract: H-NOX proteins are mutated to exhibit improved or optimal kinetic and thermodynamic properties for blood gas NO delivery. The engineered H-NOX proteins comprise mutations that impart altered NO or O2 ligand-binding relative to the corresponding wild-type H-NOX domain, and are operative as physiologically compatible mammalian blood NO gas carriers. The invention also provides pharmaceutical compositions, kits, and methods that use wild-type or mutant H-NOX proteins for the treatment of any condition for which delivery of NO is beneficial.

Abstract: H-NOX proteins are mutated to exhibit improved or optimal kinetic and thermodynamic properties for blood gas O2 delivery. The engineered H-NOX proteins comprise mutations that impart altered O2 or NO ligand-binding relative to the corresponding wild-type H-NOX domain, and are operative as physiologically compatible mammalian blood O2 gas carriers. The invention also provides pharmaceutical compositions, kits, and methods that use wild-type or mutant H-NOX proteins for the treatment of any condition for which delivery of O2 is beneficial.

Abstract: H-NOX proteins are mutated to exhibit improved or optimal kinetic and thermodynamic properties for blood gas O2 delivery. The engineered H-NOX proteins comprise mutations that impart altered O2 or NO ligand-binding relative to the corresponding wild-type H-NOX domain, and are operative as physiologically compatible mammalian blood O2 gas carriers. The invention also provides pharmaceutical compositions, kits, and methods that use wild-type or mutant H-NOX proteins for the treatment of any condition for which delivery of O2 is beneficial.

Abstract: H-NOX proteins are mutated to exhibit improved or optimal kinetic and thermodynamic properties for blood gas NO delivery. The engineered H-NOX proteins comprise mutations that impart altered NO or 02 ligand-binding relative to the corresponding wild-type H-NOX domain, and are operative as physiologically compatible mammalian blood NO gas carriers. The invention also provides pharmaceutical compositions, kits, and methods that use wild-type or mutant H-NOX proteins for the treatment of any condition for which delivery of NO is beneficial.