Abstract: Methods for preconditioning and/or providing neuroprotection to the animal central nervous system against the effects of stoke, including associated cognitive, behavioral and physical impairments. Initially, a patient at risk for stroke is identified. Effective amounts of therapeutic agents are administered to the upper third of the at-risk patient's nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of a therapeutic agent is the iron chelator deferoxamine (DFO).

Abstract: Methods for preconditioning and/or providing neuroprotection to the animal central nervous system against the effects of cerebral hemorrhage and subarachnoid hemorrhage. Therapeutic agents are administered to the upper third of the nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of such therapeutic agents is the iron chelator deferoxamine (DFO). An effective amount of DFO may be administered to the upper third of the nasal cavity of a patient at risk for, or diagnosed with, cerebral hemorrhage and subarachnoid hemorrhage. The effective amount of DFO is delivered directly to the patient's central nervous system for preconditioning, preventing and/or treating the cerebral hemorrhage and subarachnoid hemorrhage.

Abstract: Methods for treating the animal central nervous system against the effects of spinal cord injury, including associated cognitive, behavioral and physical impairments. Effective amounts of therapeutic agents are administered to the upper third of the patient's nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of a therapeutic agent is the iron chelator deferoxamine (DFO).

Abstract: Methods for treating the animal central nervous system for the effects of traumatic brain injury. Therapeutic agents are administered to the upper third of the nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of such therapeutic agents is the iron chelator deferoxamine (DFO). An effective amount of DFO may be administered to the upper third of the nasal cavity of a patient suffering from traumatic brain injury. The effective amount of DFO is delivered directly to the patient's central nervous system for treating the traumatic brain injury.

Abstract: Methods for preconditioning and/or providing neuroprotection to the animal central nervous system against the effects of progressive supranuclear palsy. Therapeutic agents are administered to the upper third of the nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of such therapeutic agents is the iron chelator deferoxamine (DFO). An effective amount of DFO may be administered to the upper third of the nasal cavity of a patient at risk for, or diagnosed with, progressive supranuclear palsy. The effective amount of DFO is delivered directly to the patient's central nervous system for preconditioning, preventing and/or treating the progressive supranuclear palsy.

Abstract: Pharmaceutical compositions for treating and/or pre-treating or preconditioning the animal central nervous system against the effects of Alzheimer's Disease including the associated neurodegeneration and cognitive, behavioral and physical impairments. In one embodiment, an effective dose of deferoxamine (DFO) is administered to the upper one-third of the subject patient's nasal cavity to effectively bypass the blood-brain barrier, thereby allowing application of the DFO dose directly to the central nervous system.

Abstract: Methods for treating the animal central nervous system against the effects of stoke, including associated cognitive, behavioral and physical impairments. Effective amounts of therapeutic agents are administered to the upper third of the stroke patient's nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of a therapeutic agent is the iron chelator deferoxamine (DFO).

Abstract: Methods for preconditioning and/or providing neuroprotection to the animal central nervous system against the effects of Huntington's disease. Therapeutic agents are administered to the upper third of the nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of such therapeutic agents is the iron chelator deferoxamine (DFO). An effective amount of DFO may be administered to the upper third of the nasal cavity of a patient at risk for, or diagnosed with Huntington's disease. The effective amount of DFO is delivered directly to the patient's central nervous system for preconditioning, preventing and/or treating Huntingon's disease.

Abstract: Methods for preconditioning, treating and/or providing neuroprotection to the animal central nervous system against the effects of neurodegeneration caused by iron accumulation in the brain. Therapeutic agents are administered to the upper third of the nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. An examplary therapeutic agent is the iron chelator deferoxamine (DFO). An effective amount of DFO may be administered to the upper third of the nasal cavity of a patient at risk for or diagnosed with neurodegeneration caused by iron accumulation in the brain. The effective amount of DFO is delivered directly to the patient's central nervous system for preconditioning, preventing and/or treating neurodegeneration caused by iron accumulation in the brain.

Abstract: Methods for preconditioning and/or providing neuroprotection to the animal central nervous system against the effects of Lewy body syndrome. Therapeutic agents are administered to the upper third of the nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of such therapeutic agents is the iron chelator deferoxamine (DFO). An effective amount of DFO may be administered to the upper third of the nasal cavity of a patient at risk for, or diagnosed with, Lewy body syndrome. The effective amount of DFO is delivered directly to the patient's central nervous system for preconditioning, preventing and/or treating the Lewy body syndrome.

Abstract: Methods and pharmaceutical compositions for treating neurodegeneration in patients diagnosed with Parkinson's Disease. Intranasal therapeutic agents, e.g., chelators, are administered to the upper third of the nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal systemic side effects. Therapeutic agents include those substances that interact with iron and/or copper such as metal chelators generally, including but not limited to iron chelators, copper chelators, and antioxidants. A particular example of such therapeutic agents is the iron chelator deferoxamine (DFO).

Abstract: Methods for treating the animal central nervous system against the effects of stoke, including associated cognitive, behavioral and physical impairments. Effective amounts of therapeutic agents are administered to the upper third of the stroke patient's nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of a therapeutic agent is the iron chelator deferoxamine (DFO).

Abstract: Methods for preconditioning and/or providing neuroprotection to the animal central nervous system against the effects of stoke, including associated cognitive, behavioral and physical impairments. Initially, a patient at risk for stroke is identified. Effective amounts of therapeutic agents are administered to the upper third of the at-risk patient's nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of a therapeutic agent is the iron chelator deferoxamine (DFO).

Abstract: Methods for treating the animal central nervous system against the effects of spinal cord injury, including associated cognitive, behavioral and physical impairments. Effective amounts of therapeutic agents are administered to the upper third of the patient's nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of a therapeutic agent is the iron chelator deferoxamine (DFO).

Abstract: Methods for preconditioning and/or providing neuroprotection to the animal central nervous system against the effects of Lewy body syndrome. Therapeutic agents are administered to the upper third of the nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of such therapeutic agents is the iron chelator deferoxamine (DFO). An effective amount of DFO may be administered to the upper third of the nasal cavity of a patient at risk for, or diagnosed with, Lewy body syndrome. The effective amount of DFO is delivered directly to the patient's central nervous system for preconditioning, preventing and/or treating the Lewy body syndrome.

Abstract: Methods for preconditioning and/or providing neuroprotection to the animal central nervous system against the effects of cerebral hemorrhage and subarachnoid hemorrhage. Therapeutic agents are administered to the upper third of the nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of such therapeutic agents is the iron chelator deferoxamine (DFO). An effective amount of DFO may be administered to the upper third of the nasal cavity of a patient at risk for, or diagnosed with, cerebral hemorrhage and subarachnoid hemorrhage. The effective amount of DFO is delivered directly to the patient's central nervous system for preconditioning, preventing and/or treating the cerebral hemorrhage and subarachnoid hemorrhage.

Abstract: Methods for preconditioning and/or providing neuroprotection to the animal central nervous system against the effects of Huntington's disease. Therapeutic agents are administered to the upper third of the nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of such therapeutic agents is the iron chelator deferoxamine (DFO). An effective amount of DFO may be administered to the upper third of the nasal cavity of a patient at risk for, or diagnosed with Huntington's disease. The effective amount of DFO is delivered directly to the patient's central nervous system for preconditioning, preventing and/or treating Huntingon's disease.

Abstract: Methods for treating the animal central nervous system for the effects of traumatic brain injury. Therapeutic agents are administered to the upper third of the nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of such therapeutic agents is the iron chelator deferoxamine (DFO). An effective amount of DFO may be administered to the upper third of the nasal cavity of a patient suffering from traumatic brain injury. The effective amount of DFO is delivered directly to the patient's central nervous system for treating the traumatic brain injury.

Abstract: Methods for preconditioning and/or providing neuroprotection to the animal central nervous system against the effects of progressive supranuclear palsy. Therapeutic agents are administered to the upper third of the nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. A particular example of such therapeutic agents is the iron chelator deferoxamine (DFO). An effective amount of DFO may be administered to the upper third of the nasal cavity of a patient at risk for, or diagnosed with, progressive supranuclear palsy. The effective amount of DFO is delivered directly to the patient's central nervous system for preconditioning, preventing and/or treating the progressive supranuclear palsy.

Abstract: Methods for preconditioning, treating and/or providing neuroprotection to the animal central nervous system against the effects of neurodegeneration caused by iron accumulation in the brain. Therapeutic agents are administered to the upper third of the nasal cavity to bypass the blood-brain barrier and access the central nervous system directly to avoid unwanted and potentially lethal side effects. Therapeutic agents include those substances that interact with iron and/or copper such as iron chelators, copper chelators, and antioxidants. An examplary therapeutic agent is the iron chelator deferoxamine (DFO). An effective amount of DFO may be administered to the upper third of the nasal cavity of a patient at risk for or diagnosed with neurodegeneration caused by iron accumulation in the brain. The effective amount of DFO is delivered directly to the patient's central nervous system for preconditioning, preventing and/or treating neurodegeneration caused by iron accumulation in the brain.