Kinesthetic physical movement feedback display for controlling the nervous system of a living organism

Claim 2

An improved method of controlling the nervous system of a living organism comprising the steps of: (a) detecting at least one bioelectrical signal from one or more topological locations in said organism's nervous system; (b) passing said at least one bioelectrical signal through at least one electronic means responsive to the presence of at least one characteristic of interest in the waveform of each detected bioelectric signal, each of said responsive means being adapted to provide a first output signal relating to the amount of said characteristic present; (c) producing a visual display responsive to said first one or more output signals, said visual display presenting an image depicting kinesthetic physical movement; and (d) causing said organism to concentrate mentally so as to change the image depicting kinesthetic physical movement on said visual display, said change of depicted image indicating desired and undesired conditions; whereby said organism is trained to alter the waveform pattern of said one or more bioelectrical signals, thereby achieving a desired condition of said nervous system.

Claim 3

The method of claim 1 wherein each of said steps is repeated to train the organism to alter the brainwave pattern of said at least one bioelectrical signal to produce a substantially permanent change in said nervous system.

Claim 4

The method of claim 2 wherein the audio output is generated when said first output signal, said second output signal and said at least one third output signal are distinct and different from one another.

Claim 5

The method of claim 1 wherein said image depicting kinesthetic physical movement is presented to said living organism and is so designed as to elicit thought patterns in said living organism's nervous system which subconsciously affect said nervous system in a manner to cause desired changes in said nervous system, said image so designed facilitating the generation of said thought patterns.

Claim 6

The method of claim 1 wherein said image depicting kinesthetic physical movement has an inherent relationship with bioelectrical signals detected at specific topological locations in said organism's nervous system.

Claim 7

The method of claim 1 wherein the living organism is alert and in a relaxed posture during the training while observing the image depicting kinesthetic physical movement, thereby concentrating on physical exertion while inhibiting undue physical motion.

Claim 8

The method of claim 1 wherein the image depicting kinesthetic physical movement promotes desired thought patterns and displays the degree of compliance in producing said desired and undesired conditions.

Claim 9

The method of claim 1 wherein said electrical characteristic of interest in any of said bioelectrical signals is at least one of: a preselected frequency component thereof; an amplitude thereof; a preselected frequency component thereof having an amplitude; an amplitude thereof greater than a preselected minimum; a preselected frequency component thereof having a preselected minimum amplitude; an amplitude thereof less than a preselected maximum; a preselected frequency component thereof having a preselected maximum amplitude.

Claim 10

The method of claim 1 wherein one bioelectrical signal is detected from one topological location in said organism's nervous system and passed through a plurality of said responsive means.

Claim 11

The method of claim 1 wherein a plurality of bioelectrical signals is detected from a plurality of topological locations in said organism's nervous system and passed through a plurality of said responsive means.

Claim 12

The method of claim 1 wherein a plurality of bioelectrical signals is detected from a plurality of topological locations in said organism's nervous system, and wherein at least one of said bioelectrical signals is passed through at least two of said responsive means, and said other bioelectrical signals, if any, are each passed through at least one additional of said responsive means.

Claim 13

The method of claim 1 further comprising the step of determining when said at least one of a first output signal and a plurality of first output signals is present in a predetermined manner indicative of a desired condition of said organism's nervous system, and providing a second output signal when said desired condition is indicated, said second output signal producing a modified image on said visual display.

Claim 14

The method of claim 12 including the additional step of passing said second output signal through a timing circuit adapted to detect whether said second output signal is present for a preselected minimum duration and producing said modified visual image only if said second output signal persists for said minimum duration.

Claim 15

The method of claim 12 further comprising the step of determining whether at least two of said plurality of first output signals are present.

Claim 16

The method of claim 12 wherein said determining step determines whether at least two of said plurality of first output signals are present or absent sequentially in time.

Claim 17

The method of claim 12 including, before step (d) of claim 1, the additional steps of: detecting the presence of at least one undesirable electrical characteristic in the waveform of at least one of said bioelectrical signals; producing a third output signal when the presence of said at least one undesirable electrical characteristic is detected; producing multiple distinct third output signals when it is desired to discriminate between two or more of said undesirable electrical characteristics; modifying the appearance of said visual display if said one or more third output signals are produced; whereby said organism is informed that at least one undesirable electrical characteristic has been detected.

Claim 20

The method of claim 16 including the additional step of maintaining the modified appearance of said visual display for a preselected duration once at least one of said undesirable electrical characteristics is detected.

Claim 21

The method of claim 16 including the additional step of adding audio output with the visual display when at least one of said third output signals is present.

Claim 22

The method of claim 16 including the additional step of totalizing the amount of time said third output signals are present and presenting the updated total in numerical form on the visual display.

Claim 23

The method of claim 16 including the additional step of individually totalizing the amount of time each of said multiple distinct third output signals are present and presenting the updated individual totals in numerical form on the visual display.

Claim 24

The method of claim 12 including the additional step of adding audio output with the visual display when said second output signal is present.

Claim 25

The method of claim 12 including the additional step of totalizing the number of times said second output signal is produced and presenting the updated total in a numerical form on the visual display.

Claim 26

The method of claim 1 including, following step (c) thereof, the additional step of controlling the duration of the presentation of said visual display or portions thereof.

Claim 27

The method of claim 1 including, following step (c) thereof, the additional step of adding audio output with the visual display responsive to said first one or more output signals.

Claim 28

The method of claim 25 wherein said audio output is modulated by the analog of at least one of said output signals.

Claim 29

The method of claim 1 including, following step (c) thereof, the additional steps of: quantifying the amplitude of the first output signal; totalizing the quantified amplitude of the first output signal over time; presenting the updated, totalized and quantified amplitude of the first output signal in numerical form on said visual display; whereby said organism can visualize the amount of the characteristics of interest being produced.

Claim 30

An improved method of controlling the nervous system of a living organism comprising the steps of: (a) detecting at least one bioelectrical signal from at least one topological location in said organism's nervous system; (b) determining the presence of at least one characteristic of interest in the waveform of each detected bioelectric signal and producing a first output signal relating to the amount of said electrical characteristic present, wherein said electrical characteristic of interest in any of said bioelectrical signals is at least one of: a preselected frequency component thereof; an amplitude thereof greater than a preselected minimum; and a preselected frequency component thereof having a preselected minimum amplitude; (c) producing a visual display responsive to said first one or more output signals, said visual display presenting an image depicting kinesthetic physical movement; (d) determining when at least one of a plurality of first output signals is present in a predetermined manner for a predetermined time period indicative of a desired condition of said organism's nervous system, and producing a second output signal when said desired condition is indicated, said second output signal producing a modified image on said visual display; (e) detecting the presence of at least one undesirable electrical characteristic in the waveform of at least one of said bioelectrical signals, said detected undesirable electrical characteristic producing at least one distinct third output signal, whereby the appearance of said visual display is modified if said at least one distinct third output signal is produced; (f) maintaining the modified appearance of said visual display for a preselected duration if said at least one distinct third output signal is produced; (g) adding audio output to the visual display responsive to said first one or more output signals, said audio output modulated by the analog of said one or more output signals; (h) adding audio output to the visual display when said second output signal is present; (i) adding audio output to the visual display when at least one of said distinct third output signals is present; (j) presenting an updated, totalized and quantified amplitude of the first output signal in numerical form on said visual display; (k) totalizing the number of times said second output signal is produced and presenting the updated total in a numerical form on said visual display; (l) totalizing the amount of time said at least one distinct third output signal is present and presenting the updated totals in numerical form on said visual display; (m) causing said organism to concentrate mentally so as to change the image depicting kinesthetic physical movement on said visual display, said change of depicted image indicating desired and undesired conditions; whereby said organism is trained to alter the waveform pattern of said one or more bioelectrical signals, thereby achieving a desired condition of said nervous system.

Claim 31

An improved method of controlling the nervous system of a living organism comprising the steps of: (a) detecting at least one bioelectrical signal from at least one topological location in said organism's nervous system; (b) determining the presence of at least one characteristic of interest in the waveform of each detected bioelectric signal and producing a first output signal relating to the amount of said electrical characteristic present, wherein said electrical characteristic of interest in any of said bioelectrical signals is at least one of: a preselected frequency component thereof; an amplitude thereof greater than a preselected minimum; and a preselected frequency component thereof having a preselected minimum amplitude; (c) producing a visual display responsive to said first one or more output signals, said visual display presenting an image depicting kinesthetic physical movement; (d) determining when at least one of a plurality of first output signals is present in a predetermined manner for a predetermined time period indicative of a desired condition of said organism's nervous system, and producing a second output signal when said desired condition is indicated, said second output signal producing a modified image on said visual display; (e) detecting the presence of at least one undesirable electrical characteristic in the waveform of at least one of said bioelectrical signals, said detected undesirable electrical characteristic producing at least one distinct third output signal, whereby the appearance of said visual display is modified if said at least one distinct third output signal is produced; (f) maintaining the modified appearance of said visual display for a preselected duration if said at least one distinct third output signal is produced; (g) adding audio output to the visual display responsive to said first one or more output signals, said audio output modulated by the analog of said one or more output signals; (h) adding audio output to the visual display when said second output signal is present; (i) adding audio output to the visual display when at least one of said distinct third output signals is present; (j) presenting an updated, totalized and quantified amplitude of the first output signal in numerical form on said visual display; (k) totalizing the number of times said second output signal is produced and presenting the updated total in a numerical form on said visual display; (l) totalizing the amount of time said at least one distinct third output signal is present and presenting the updated totals in numerical form on said visual display; (m) causing said organism to concentrate mentally so as to change the image depicting kinesthetic physical movement on said visual display, said change of depicted image indicating desired and undesired conditions; whereby said organism is trained to alter the waveform pattern of said one or more bioelectrical signals, thereby achieving a desired condition of said nervous system.

Claim 32

An improved system of controlling the nervous system of a living organism comprising: (a) means for detecting a bioelectrical signal disposed at least one topological location on the nervous system of said organism; (b) electronic means responsive to the presence of at least one electrical characteristic of interest in the waveform of the detected bioelectrical signal, each of said responsive means being electrically couple one of said bioelectrical signal detection means and providing at its output a first output signal relating to the amount of said characteristic of interest; (c) means for producing a visual display responsive to each of said first output signals, said visual display presenting an image depicting kinesthetic physical movement, said visual display having at least one input electrically coupled to corresponding outputs from said at least one responsive means; whereby said organism is trained to alter the waveform pattern of said one or more bioelectrical signals by concentrating so as to produce or change the presentation of said visual display, said visual display being presented to said organism as feedback for producing or suppressing said electrical characteristics of interest in said one or more signals, thereby achieving a desired condition of said nervous system.

Claim 33

An improved system of controlling the nervous system of a living organism comprising: (a) means for detecting a bioelectrical signal disposed at least one topological location on the nervous system of said organism; (b) electronic means responsive to the presence of at least one electrical characteristic of interest in the waveform of the detected bioelectrical signal, each of said responsive means being electrically couple one of said bioelectrical signal detection means and providing at its output a first output signal relating to the amount of said characteristic of interest; (c) means for producing a visual display responsive to each of said first output signals, said visual display presenting an image depicting kinesthetic physical movement, said visual display having at least one input electrically coupled to corresponding outputs from said at least one responsive means; whereby said organism is trained to alter the waveform pattern of said one or more bioelectrical signals by concentrating so as to produce or change the presentation of said visual display, said visual display being presented to said organism as feedback for producing or suppressing said electrical characteristics of interest in said one or more signals, thereby achieving a desired condition of said nervous system.

Claim 34

The system of claim 29 wherein said means for detecting said bioelectrical signals comprises electrodes adapted to be coupled to said organism, means for amplifying said signals, and means for connecting between said electrodes and said amplifying means.

Claim 35

The system of claim 29 wherein at least one of said responsive means comprises a bandpass filter responsive to a preselected frequency component of said bioelectrical signal.

Claim 36

The system of claim 29 wherein at least one of said responsive means comprises means for sensing voltage amplitude responsive to an amplitude of said bioelectrical signal which is greater than a preselected minimum.

Claim 37

The system of claim 29 wherein at least one of said responsive means comprises means for sensing voltage amplitude responsive to an amplitude of said bioelectrical signal which is less than a preselected maximum.

Claim 38

The system of claim 29 wherein at least one of said responsive means comprises a bandpass filter electrically coupled to means for sensing voltage amplitude, said combination thereof being responsive to a predetermined frequency component of said bioelectrical signal having a predetermined amplitude.

Claim 39

The system of claim 29 wherein one of said bioelectrical signal detection means is disposed at one topological location in said organism's nervous system and electrically coupled to each of said plurality of responsive means.

Claim 40

The system of claim 29 wherein a plurality of bioelectrical signal detection means are disposed at a plurality of topological locations in said organism's nervous system and each is electrically coupled to a corresponding one of said plurality of responsive means.

Claim 41

The system of claim 29 wherein a plurality of bioelectrical signal detection means are disposed at a plurality of topological locations in said organism's nervous system, and wherein at least one of said detection means is electrically coupled to at least two of said plurality of responsive means, and said other detection means, if any, are each electrically coupled to one of said plurality of responsive means.

Claim 42

The system of claim 29 including therein a logic means implemented to detect when at least one of a first output signal and a plurality of first output signals is present in predetermined manner indicative of a desired condition of said organism's nervous system, said logic means providing a second output signal when said desired condition is detected, said logic means electrically coupled to said visual display, said second output signal modifying the image on said visual display.

Claim 43

The system of claim 38 including therein a timing means coupled between said logic means and said visual display, said timing means adapted to detect whether said second output signal is present for a predetermined minimum duration and, if present for a predetermined minimum duration, to pass said second output signal to modify the image on said visual display.

Claim 44

The system of claim 38 wherein said logic means detect if at least two of said plurality of first output signals are present concurrently.

Claim 45

The system of claim 38 wherein said logic means comprises means for timing intervals, said logic means providing discrete second output signal pulses to modify the visual display after a minimum time duration between subsequent second output signal pulses.

Claim 46

The system of claim 38 wherein said logic means comprises timing means for producing a discrete second output signal of desired duration

Claim 47

The system of claim 38 including means for producing an audio tone responsive to said second output signal.

Claim 48

The system of claim 38 including means for totalizing the number of times said second output signal is produced and means for presenting said total in numerical form on said visual display.

Claim 49

The system of claim 29 further comprising means for sensing if said characteristic of interest in said bioelectrical signal is present above or below a predetermined amplitude for a predetermined minimum duration, said duration sensing means coupled between said responsive means and said visual display and modifying said visual display.

Claim 50

The system of claim 29 including therein one or more means for detecting the presence of at least one undesired characteristic of interest, said detecting means providing at least one third output signal when said at least one undesired characteristic of interest is detected, said at least one detecting means coupled to said visual display, said at least one third output signal modifying the image on said visual display.

Claim 51

The system of claim 46 wherein said at least one third output signal is connected logically as a single output signal to cause a modification of the visual display.

Claim 52

The system of claim 46 wherein a plurality of detecting means causes a like plurality of distinct modifications of the visual display allowing the human organism to discern that multiple undesired characteristics of interest are present and, further, allowing the human organism to discern which of the undesired characteristics are present at any given time.

Claim 53

The system of claim 46 including means of maintaining the modified appearance of said visual display for a preselected duration once said at least one undesirable characteristic is detected.

Claim 54

The system of claim 46 including means for producing an audio tone responsive to said at least one third output signal.

Claim 55

The system of claim 46 including means for totalizing the amount of time said at least one third output signal is present and means for presenting said total in numerical form on said visual display.

Claim 56

The system of claim 46 including means for individually totalizing the amount of time each of said third output signals are present and means for presenting said individual totals in numerical form on said visual display.

Claim 57

The system of claim 29 including means for producing an audio tone responsive to the at least one first output signal.

Claim 58

The system of claim 53 including means to modulate said audio tone by the analog of said at least one first output signal.

Claim 59

The system of claim 29 wherein the audio tones produced in response to said at least one first, second and third output signals are distinct and different from one another.

Claim 60

The system of claim 29 further comprising means for: quantifying the amplitude of the first at least one output signal; totalizing the quantified amplitude of the first at least one output signal over time; presenting the updated, totalized and quantified amplitude of the first at least one output signal in numerical form on said visual display, or presenting the updated, individually totalized and quantified amplitude of the output signals in individual numerical form on said visual display; thereby allowing said organism to visualize the amount of said characteristics of interest being produced.