A system and method for therapeutic agent conveyance using configurable magnetic field includes a field generating workstation. The workstation includes at least one, generally a pair of, magnet subassemblies. Each subassembly is rotationally mounted on a rotation axis to orientate the subassembly poles. A rotatable yoke supports each subassembly and the yoke axis is offset from each subassembly rotation axis. Yoke rotation configures a collective system magnetic field. The method aligns the yoke axis with a user selected region within a subject, introduces a plurality of magnetic materials and associated therapeutic agents into the subject; orientates each magnet subassembly at a specific angular location and configures the workstations magnetic field whereby the plurality of magnetic materials and associated therapeutic agents are influenced by the magnetic field to either be simultaneously conveyed towards the user-selected region from multiple directions or simultaneously conveyed away from a user-selected region in multiple directions.

A system and method for therapeutic agent conveyance using configurable magnetic field includes a field generating workstation. The workstation includes at least one, generally a pair of, magnet subassemblies. Each subassembly is rotationally mounted on a rotation axis to orientate the subassembly poles. A rotatable yoke supports each subassembly and the yoke axis is offset from each subassembly rotation axis. Yoke rotation configures a collective system magnetic field. The method aligns the yoke axis with a user selected region within a subject, introduces a plurality of magnetic materials and associated therapeutic agents into the subject; orientates each magnet subassembly at a specific angular location and configures the workstations magnetic field whereby the plurality of magnetic materials and associated therapeutic agents are influenced by the magnetic field to either be simultaneously conveyed towards the user-selected region from multiple directions or simultaneously conveyed away from a user-selected region in multiple directions.

A method and a device for detecting substances and their concentrations in a mixture using magnetic resonance, containing one or more markers deposited on a surface of a carrier in contact with the mixture, wherein the marker is a substance that through intermolecular interactions causes a predetermined orientation of molecules for at least one of the mixture components.

The resting apparatus, such as a bed, and methods of stimulating the immune system to treat damaged and abnormal tissue using compressed static magnetic fields provides for noninvasive treatment of damages tissue and removal of abnormal tissue. At least two magnets are positioned to have their static magnetic fields compressed at the damaged or abnormal tissue and at the immediately surrounding healthy tissue. The compressed static magnetic fields stimulate the immune system in the immediately surrounding healthy tissue which treats the damaged or abnormal tissue. The treated tissue fully regenerates without additional medical intervention. The devices provide for efficient exposure to compressed magnetic fields and ease of use at different locations on a body and different types of animal species.

The resting apparatus, such as a bed, and methods of stimulating the immune system to treat damaged and abnormal tissue using compressed static magnetic fields provides for noninvasive treatment of damages tissue and removal of abnormal tissue. At least two magnets are positioned to have their static magnetic fields compressed at the damaged or abnormal tissue and at the immediately surrounding healthy tissue. The compressed static magnetic fields stimulate the immune system in the immediately surrounding healthy tissue which treats the damaged or abnormal tissue. The treated tissue fully regenerates without additional medical intervention. The devices provide for efficient exposure to compressed magnetic fields and ease of use at different locations on a body and different types of animal species.

The devices and methods of stimulating the immune system to treat damaged and abnormal tissue using compressed static magnetic fields provides for noninvasive treatment of damages tissue and removal of abnormal tissue. At least two magnets are positioned to have their static magnetic fields compressed at the damaged or abnormal tissue and at the immediately surrounding healthy tissue. The compressed static magnetic fields stimulate the immune system in the immediately surrounding healthy tissue which treats the damaged or abnormal tissue. The treated tissue fully regenerates without additional medical intervention. The devices provide for efficient exposure to compressed magnetic fields and ease of use at different locations on a body and different types of animal species.

The devices and methods of stimulating the immune system to treat damaged and abnormal tissue using compressed static magnetic fields provides for noninvasive treatment of damages tissue and removal of abnormal tissue. At least two magnets are positioned to have their static magnetic fields compressed at the damaged or abnormal tissue and at the immediately surrounding healthy tissue. The compressed static magnetic fields stimulate the immune system in the immediately surrounding healthy tissue which treats the damaged or abnormal tissue. The treated tissue fully regenerates without additional medical intervention. The devices provide for efficient exposure to compressed magnetic fields and ease of use at different locations on a body and different types of animal species.

Apparatuses and methods safely apply electric fields deep in a body by selectively actuating multiple magnetic modules about the body sequentially in time to modulate tissue. The electric field induced in regions of the body from such actuations may have a different frequency, depending on the depth of the region.

Apparatuses and methods safely apply electric fields deep in a body by selectively actuating multiple magnetic modules about the body sequentially in time to modulate tissue. The electric field induced in regions of the body from such actuations may have a different frequency, depending on the depth of the region.

Systems and methods for enhancing muscle function of skeletal muscles in connection with a planned spine surgery intervention in a patient's back are provided. The method includes implanting one or more electrodes in or adjacent to tissue associated with one or more skeletal muscles within a back of a patient, the one or more electrodes in electrical communication with a pulse generator programmed for enhancing muscle function of the one or more skeletal muscles. Electrical stimulation is delivered, according to the programming during a time period associated with the planned spine surgery intervention, from the pulse generator to the tissue associated with the one or more skeletal muscles via the one or more electrodes, thereby improving neuromuscular control system performance of the one or more spine stabilizing muscles in connection with the planned spine surgery intervention to reduce the patient's recovery time associated with the planned spine surgery intervention.