Methods and apparatus for regulating transmembrane ion movement utilizing selective harmonic frequencies and simultaneous multiple ion regulation

Claim 1

A method for the therapeutic treatment of a region of tissue in vivo in the presence of at least two distinct ionic species, comprising the steps of: providing a magnetic field generator having means to generate an applied fluctuating magnetic field along an axis; providing a magnetic field sensor and a signal feedback system having a microprocessor which permits adjustment of the parameters of said applied magnetic field along said axis; providing in the path of said axis a region of living tissue in vivo in the presence of at least two distinct ionic species in an ambient static magnetic field; placing said magnetic field generator adjacent said tissue; generating a fluctuating magnetic field along said axis and through said tissue; creating and maintaining a ratio between the frequency of said fluctuating applied magnetic field and the combined strength of said applied magnetic field and said ambient field along said axis, wherein said frequency is within 5% of preselected harmonic frequencies of said at least two distinct ionic species; wherein said harmonic frequencies are odd integer multiples of a fundamental frequency of each ionic species, said fundamental frequency of each of said ionic species being a function of the charge-to-mass ratio of the ionic species and the combined field strength along said axis; and automatically adjusting with said microprocessor said applied magnetic field to maintain said ratio despite changes in said ambient static field due to changes in the direction of said axis.

Claim 2

A method for the therapeutic treatment of a region of tissue in vivo in the presence of at least two distinct ionic species, comprising the steps of: providing a magnetic field generator having means to generate an applied fluctuating magnetic field along an axis; providing a magnetic field sensor and a signal feedback system having a microprocessor which permits adjustment of the parameters of said applied magnetic field along said axis; providing in the path of said axis a region of living tissue in vivo in the presence of at least two distinct ionic species in an ambient static magnetic field; placing said magnetic field generator adjacent said tissue; generating a fluctuating magnetic field along said axis and through said tissue; creating and maintaining a ratio between the frequency of said fluctuating applied magnetic field and the combined strength of said applied magnetic field and said ambient field along said axis, wherein said frequency is within 5% of preselected harmonic frequencies of said at least two distinct ionic species; wherein said harmonic frequencies are odd integer multiples of a fundamental frequency of each ionic species, said fundamental frequency of each of said ionic species being a function of the charge-to-mass ratio of the ionic species and the combined field strength along said axis; and automatically adjusting with said microprocessor said applied magnetic field to maintain said ratio despite changes in said ambient static field due to changes in the direction of said axis.