INSTRUMENT AND METHOD OF REFLEXOLOGICAL MEASUREMENT TO STANDARDIZE AND CLASSIFY A NEW MEASURE UNIT

Abstract: Instrument of reflexological measurement constituted by a measure probe (1), by a transduction system (2), by a matrix with the conversion in FTDB of all the values potentially possible (3), by a computer with a body-scanning program (4). By surveying the electrical current on some point of the auricular pavilion it is possible to ascertain a lot of pathologies. The invention standardizes and classifies a new unit of measure, called FDTP (Ferraro/Tkachenko Data-Base).

Description: INSTRUMENT AND METHOD OF REFLEXLOGICAL MEASUREMENT TO STANDARDIZE AND CLASSIFY A NEW MEASURE UNITY FIELD OF THE INVENTION The instrument and the method of reflexological measurement object of the present invention standardizes and classifies a new measure unity for the electromedical sector, suitable to signal, by means of a proper measure/elaboration of electrical conductivity in some points of the auricular pavilion, the diagnose of some pathologies. STATE OF THE ART AND BETTER WAY TO CARRY OUT THE INVENTION The invention has the purpose to realize: • / STANDARDIZATION OF THE MEASURE ACQUISITION PROBEj; ADAPTATION/CALIBRATION OF THE MEASURES, USING A SUITABLE HARDWARE STRUCTURE, IN ORDER TO BE RELATED TO THE SPECIFIC CHARACTERISTICS OF THE PATIENT; ELABORATION/TRANSDUCTION OF THE MEASURES IN ORDER TO OBTAIN A PARAMETER INDICATING THE DIFFERENT PATHOLOGICAL CONDITIONS AND NOT DEPENDING FROM THE SAME REFLEXOLOGICAL SENSITIVITY OF THE ANALYZED ORGANS.. Hereinafter the innovative methods are illustrated in the single sections in order to obtain this new measure standard that will be called FTDB (Ferraro/T achenko Data-Base). STANDARDIZATION OF THE MEASURE ACQUISITION PROBE Many scientific publications describe how the electrical resistance of the human body is modified in the reflexological points, for the reason that it has never been activated a standardization process of the measure, the method has always appeared "not usable/exportable beyond the experience of the single physician, exactly because it is unable to express, in a general way, a parameter that can be repeated and compared; it is in fact known that the electrical resistance on the skin ( therefore also on the reflexological points) is modified with the variation of the contact surface between measure organ and epidermic surface changes, or with variation of the pressure by which the measure instrument presses to realize the contact on the skin. Our standardization process starts therefore with the structuring of the probe (section that surveys/transduces the value of the electrical resistance of the human body), carrying out to this purpose a series of clinical tests/comparisons in order to obtain the best functional parameters; tha is very complex because: (a) contact surface should be as wide as possible, without that for this reason the measure is affected/mediated by the resistive value of measures other then the auricular diagnostic point under examination; (b) contact surface must be curved, because it must be able to assure a good uniform and repetitive contact between skin and measure probe, without creating to the patient pain conditions (ear is a measure area particularly sensible); (c) contact pressure between measure element and reflexological point must be able to assure a good contact between the parts, but in the mean time it must be the less elevate as possible; it could so far squeeze/damage the skin in the contact point and therefore could alter the measure. At the end of the experimental phase the best parameters were the ones quoted in figure 2. Consequently as standard for FTDB measure unity has been defined a probe that should have the following characteristics: (d) the point of measure, from now on denominated PTM, must be realized with a conductive material (in our experimental application it has been built with stainless steel) and must have a diameter of 1 ,5 mm; (e) PTM, normally positioned on level-A (see fig.2) must be able to draw back till to reach level-B and in this position it must assure a pressure of 65 grams between PTM and skin (our prototype has been realized with a phosphorous bronze spring that can be suitably calibrated by means of a screw system); user finds very easy to reach level-B because this level coincides with complete drawback of PTM and therefore with the contact on the skin of the insulated material part (see insulated material part fig.2); (f) Contact surface that PTM offers to the skin must have a "uniformly lowered spherical" shape whose maximum diameter is equal to 1.5 mm, while the minimum diameter is 0.66 mm; a good compromise that clinical research activated to this purpose has showed able to satisfy the different exigencies that, in this case, are to be mediated: repetitive contact surface in different reflexological points, absence of pain/trouble on the patient. The experimental prototype has been realized by means of an electroerosion process, in order to operate in absolute safety as regards to the qualitative/dimensional aspects of the finished product. User, positioning PTM to perform the measure, shall be obviously very careful to position the probe in a perpendicular way to the natural proceeding of the skin on the reflexological point that is to be analyzed; in fact only in this way it is sure that conduction surface (and therefore the value of the measure) is in conformity to the one foreseen in the clinical experimentation phase and that, consequently, the observed data shall report, exactly diagnostic results that reflexological process makes evident on a patient that undergoes to examination. ADAPTATION/CALIBRATION OF THE MEASURE, USING A SUITABLE HARDWARE STRUCTURE, IN ORDER TO BE RELATED TO THE SPECIFIC CHARACTERISTICS OF THE PATIENT. Saying first that this description uses two terms nominated point-zero (from now on indicated as PNTZ) and reflexological point of the organ under examination (from now on indicated as PROE), which corresponds to the point AT-83 and to any one of the diagnostic point of measure of the standard Konig-Wancura, it is made evident that the eventual pathological datum that auricular diagnostic system points out it is contained just in the difference of measure (unbalance) existing between the point PNTZ and the point PROE (in some cases the pathological condition is evaluated in an indirect way, that is correlating other reflexological points, without modifying the functional concept of the method. To find out these measures actually transduction standards that utilizes a "microAmperometer" system (see fig.3) or a "resistive partition" system (see fig.4), two methodologies of measure that, as we will demonstrate, are little efficacious in this typology of application and undoubtedly, given their low reliability/repetitivity they have considerably slowed down the affirmation of the auricular diagnostic method as "powerful method of diagnosis. In the case of measurement by means of " MlCRO-AMPEROMETER", in fact, the resistive difference that shows the pathological condition level, is got in a strongly approximate way and with a low level of repetitivity/comparison between patient and patient, in fact, if two patient, that are put in comparison, have different ohmic resistance in point PNTZ, no serious comparison is possible, really the system does not allow reliable comparisons, in different times, not even on the same patient. It has been experimented that PNTZ of the same individuals changes if hours and/or days change. To demonstrate the problems that, in such a use, this typology brings, the following association labels/measure parameter are assigned (making reference to fig. 3). s "RPTG" indicates the resistance that expresses the pathological condition (difference between the resistance of PNTZ point and the one of PROE point); X "IPNTZ" indicates the current that is present on the point PNTZ; "RPNTZ" indicates the resistance that is present on the point PNTZ; "IPROE" indicates the current that is present on the point PROE; X "RPROE" indicates the resistance that is present on the point PROE; ■ "VBT1 " indicates the tension that is present on the feeding knot; s "RL" indicates the resistance that is assigned as current limiter; and from these parameters it is possible to get the equation that elaborates the resistive value on PNTZ, that is expressed as it follows : Vbt\ -(Ipnlz * Rl) Rpntz = — - Iptnz the equation that gets the resistive value on point PROE, that is expressed as it follows: Vbt\ - (Iproe * Rl) Rproe = - Iproe To obtain the value that expresses the parameter of the pathological condition: Rptg = Rpntz - Rproe this is a parameter that is interpreted in an "absolute way" and therefore is not correlated to the whole of the dynamical condition that characterizes the same measure, said parameter becomes not significative as the value of "RPNTZ", is modified, this is a heavy limitation to the system that becomes not usable for the formation of data bases and/or of interpretative "objective" standards. In the case of the measure by means of "RESISTIVE-DIVIDER" (see fig. 4), besides the problems of objective safety for the patient, the method is directed, in fact, to the use of operational amplifier (whose functional standards of tension are rather elevated, typically comprised between +/- 10 and +/- 15 Volts; - for a potential difference of tension, if something is wrong, comprised between 20 and 30 Volts, the system presents an intrinsic functional non linear conception of its and for this reason it presents a "comparative deficiency" of the provided measures. If we want to demonstrate, in this schematic typology the errors that characterize the system we assign, as for preceding case, the following association of labels/parameters of measure: - "VBT2A/B" indicates the feeding tension (single or dual) on the feeding knot; - "VPNTZ" indicates the tension of point VINP when it is measured PNTZ; - "VPROE" indicates the tension of point VINP when it is measured VPROE; "VPTG" indicates the difference between tension VPNTZ and VPROE; - "Rp" indicates the divider resistance used; Supposing, in this case, that we want to actuate a comparative diagnosis between two patients that are indicated with suffix A and B , which present respectively a RPNTZ-A of 150 KΩ, and a RPNTZ-B of 350 KΩ, on a Rp of 250 KΩ, , in this case we should have in the case "A" a VINP of: Vj UA - m2ΛB * Bp A - naAB t l∞M0 = W naAB Rp + RpntzA 250000 + 150000 and in the case B a VINP of: VbtlAB Λ n __ VbtlAB * 350.000 n eM Λ τ „ „ Λ n ft./jtz£ = * RpntzB = = 0,583 * VbtlAB Rp + RpntzB 250000 + 350000 considering, as demonstrative example, a variation of RPROE in positive sense and in both cases of 35%, we would register in the case A a VPROE of: VbtlAB Λ n Λ VbtlAB * 101.500 A . T ^ ^ n VproeA = * RproeA = = 0,447 * VbtlAB Rp + RproeA 250000 + 202.500 and in the case B a VPROEB of: VbtlAB Λ n „ VbtlAB * 472.500 ,- ,_. , * „, „ _ „ VproeB = * RproeB = = 0,654 * VbtlAB Rp + RproeB 250000 + 472.500 an error of 46% while the two parameters should be perfectly equal because they are generated from the same quantity of initial delta: +35%. The circuital solution of the present invention can be called: "VARIABLE RESISTIVE DIVIDERS NET" (see fig.5), it allows remarkable functional advantages, between these ones: X an operative tension of absolute safety (it does not require, in spite of the elevated precision, that allows, the use of operational amplifiers); x survey of measures structurally without errors; X possibility of balancing any effect of electrolysis; X possibility of being disposed as easy programmable system of therapeutic rebalancing; Hereinafter we describe the characteristics/performances of the circuit, together with the list of the advantages that its structuring allows. To characterize its block scheme, two divider nets are used, , (indicated as Snet-p Snet-n in the scheme), they are constituted by a series of analogical switches in C-Mos connected in parallel with a series of calibrated resistances with a binary scale (in the construction of the prototype the value of 5 KΩ has been assigned to Rp). This divider, enabling opportunely the control of the analogical switches (SWPO, SWP1 ... SWPΠ) may acquire, with a step of 5 KΩ, any resistive value comprised between 0 KΩ (activating all the controls of the analogical switches) and the sum of all the resistances connected on the resistive net (putting of all the controls of the analogical switches); in our prototype, in which are inserted 8 analogical switches, the device could therefore operate giving to the circuit a divider resistance programmable between 0 KΩ and 1.275 MΩ. A rather important consideration is that both the reading precision and the extension of the maximum resistance, both may be calibrated to the parameter considered the most important, modifying the number of switches and/or the value of the base resistance Rp. It is important to make evident that the precision of reading of our prototype (8 analogical switch on a base resistance Rp of 5 KΩ), is not to be intended as a structure that has a limit precision of 5 KΩ, in fact, if we assign, as in the preceding cases, the labels/parameters associations of measure: X "REAR" indicates the resistance on the auricular diagnostic point that is intended to measure; x "RNET-P" indicates the resistance on the auricular diagnostic point that is supplied, on the analogical switches, by means of programming, to the net of the positive divider; x VBT3" indicates the feeding tension of the circuit; x "VADC" indicates the measure tension on the variable resistive divider (measured by the analogical/digital converter and equivalent to VBT3/256 for every digit); x "RPRV" indicates the programmed resistance on the variable-resistive- divider; and considering, for example, an operative condition in which: x the net of the negative analogical switches (SNET-N), is programmed in such a way that can be totally activated and therefore putting this section with a value of the resistance zero; x the net of the polarity switches (SPLRT), is programmed in such a way that only the analogical switches Swc2 e Swc4 are active; in order to make the measure net to became operative as a normal divider positioned on the positive pole; An operative logic is actuated, in which, in a first phase, the control of the analogical switches SNET-P searches for a RNET-P, that is as near as possible to the REAR . (This condition is reached searching for the value of VADC that is as near as possible to "#128" - if we operate with a net of δbits) and optimizing the reached result, activating the equation that gets the effective value of REAR, through the under reported formula: Vadc Vadc Re r Iprv Vbt3 - Vadc Rprv this elaboration allows to get the REAR value with an approximation even more detailed than the one obtainable by means of only a net of resistive divider RNET-P. The formula that from a first analysis seems strongly approximate, it can be really considered valid because: the values RL1 and RL2 are negligible in comparison with the playing quantity, the Buffer-P presents an incoming impedance that, also in this case, is negligible in comparison with the operational parameters as the impedance of short circuits and/or open circuit of analogical switches are. Regarding to the functional aspects of the system and evaluating the same under a potential/total profile, it is, at the end, made evident, that: 1. the analogical switches of polarity "SPLRT", activating opportunely their control, allow: a) to close electrically the reflexological point under examination (in our prototype activating controls: Swd , Swc2, Swc3, Swc4); b) to open electrically the reflexological point under examination (in our prototype inactivating the controls: Swd , Swc2, Swc3, Swc4); c) to polarize in a positive way the reflexological point under examination (in our prototype activating controls: Swc2, Swc4); d) to polarize in a negative way the reflexological point under examination (in our prototype activating controls: Swd, Swc3); and from these possible functional conditions, it is then possible to arrange to activate anti electrolytic, of equalization, therapeutical correction. 2. The analogical switches of the resistive divider positioned on the positive polarity "SNET-P", activating opportunely their controls (selectable from SWPO till SWP7 - as said our prototype has been structured at 8 bits, but could also be at 16 or 32 bits) allow: e) To position themselves on different levels of the positive electric potential and therefore to generate specific/particular forms of waves able to compensate in the most suitable way the most right actions necessary to the reflexological points under examination. 3. The analogical switches of the resistive divider, positioned on the negative polarity "SNET-N", activating opportunely their controls (selectable from SWNO till SWN7 - as said our prototype has been structured at 8 bits, but could also be at 16 or 32 bits) allow: f) To position themselves on different levels of the negative electric potential and therefore to generate specific/particular forms of waves able to compensate in the most suitable way the most right actions necessary to the reflexological points under examination. The method object of the present invention allow a series of advantages as: I. BETTER OPERATIVE SAFETY = it can function with a great precision and without the use of operational amplifier and/or high operative tensions; it is adapt to the C-Mos digital standards. +3,3 or +5 Volt d.c. II. PERFORMING MEASURES WITH COMPARATIVE TECHNIC = it can perform a comparison between parameters surveyed with the " active divider" positioned both on the positive polarity and on the negative one; All this to the advantage of the quality/reliability of the measure, because it is possible to actuate a double comparison. III. SUPPLYING MEASURE PARAMETERS WITHOUT ERRORS DUE TO NON LINEARITY OF THE TRANSDUCTION = it can perform the measurement, both trying in an automatic way the same value of REAR (and using the reading INP-ADC- P/N as level of control to reach the partition VBT3/2), or actuating other forms of partition/reading, in which it is always operative the possibility to change the resistance of partition both on the positive polarity and on the negative one; IV. REBALANCING/PRODUCTION OF THERAPEUTICAL EFFECTS = it can perform compensative reflexological forms modifying: X Polarities of the current/tension (through analogical switches of SPLRT); X Impedance of the reflexological point (changing opportunely analogical switches of SPLRT); X The "wave forms" generating different levels of electric potential (through analogical switches of SNET-P and of SNET-N). ELABORATION/TRANSDUCTION OF THE MEASURES TO OBTAIN A PARAMETER INDICATOR OF THE DIFFERENT PATHOLOGICAL CONDITIONS, INDIPENDENT FROM THE SAME REFLEXOLOGICAL SENSIBILITY OF THE ANALYZED ORGANS. Actual methods of auricular diagnostic control, utilizing the value of the delta of measure of any single organ (regarding to zero point) and, to perform the diagnosis, they compare every delta with the different references of pathological state (values are always specific and directed to any particular organ interested); a true confusion of microAmper and/or KΩ where is very difficult to understand. This new invention moves different reflexological data in a new standard/unity of measure, called FTDB (Ferraro/Tkachenko Data-Base) whose undoubted advantage is that to supply as expression of the diagnostic datum, a value that, independently from the analyzed organ, gives immediately the pathological state that becomes evident on the patient under examination, through its reflexological analysis. To make even more easy its interpretation, this unity of measure has been structured/divided in four operative areas so classified: (g) AREA WITH NON PATHOLOGICAL CONDITIONS: where values of the FTDB unity are comprised between 0 and 24 and with polarity both positive and negative; (h) AREA WITH LIGHT PATHOLOGICAL CONDITIONS: where values of the FTDB unity are comprised between 25 and 49 with polarity both positive and negative; (i) AREA WITH MEDIUM PATHOLOGICAL CONDITIONS: where values of the FTDB unity are comprised between 50 and 74 and with polarity both positive and negative; (j) AREA WITH STRONG PATHOLOGICAL CONDITIONS: : where values of the FTDB unity are comprised between 75 and 99 and with polarity negative; a process of standardization that has required to structure a series of curves/matrixes-FTDB of transduction which for every specific organ to evaluate are, in the phase of programming, loaded in the computer to be later on recalled when it is required to elaborate/express the diagnosis as FTDB unity. Furthermore, because the different reflexological points are not indicators of the same pathological gravity and/or of a constant direct interpretation (some people gives pre informations to be correlated with other points). Three different types of curves/matrixes classified in this way have been structured: Curves that expresses areas even with "SERIOUS PATHOLOGICAL CONDITIONS" whose example is given in fig. 6 where the definition parameters have been elaborated for the organs and with the delimitations hereinafter reported (curves are referred to theoretic patients whose zero resistance was re- elaborated at 250KΩ): 1. STOMACH (point AT-87) whose principal points of definition are: "a" (equivalent to +25 FTDB) with +2,2 μA; "-a" (equivalent to -25 FTDB) with -2,0 μA; "-c" (equivalent to -75 FTDB) with -6,15 μA. 2. LARGE INTESTINE (point AT-91) whose principal points of definition are: "a" (equivalent to +25 FTDB) with +1 ,6 μA; "-a" (equivalent to -25 FTDB) with -1 ,3 μA; "-c" (equivalent to -75 FTDB) with -3,15 μA. 3. PANCREAS (point AT-96) whose principal points of definition are: "a" (equivalent to +25 FTDB) with +1,2 μA; "-a" (equivalent to -25 FTDB) with -1 ,0 μA; "-b" (equivalent to -50 FTDB) with -2,8 μA. 4. PROSTATE (point AT-93) whose principal points of definition are: "a" (equivalent to +25 FTDB) with +1 ,8 μA; "-a" (equivalent to -25 FTDB) with -1 ,5 μA; "-c" (equivalent to -75 FTDB) with -3,8 μA. 5. UTERUS CERVIX (point AT-56) whose principal points of definition are: "a" (equivalent to +25 FTDB) with +1 ,7 μA; "-a" (equivalent to -25 FTDB) con -1 ,5 μA; "-c" (equivalent to -75 FTDB) with -3,5 μA. 6. UTERUS (point AT-58) whose principal points of definition are: "a" (equivalent to +25 FTDB) with +1 ,8 μA; "-a" (equivalent to -25 FTDB) with -1 ,5 μA; "-c" (equivalent to -75 FTDB) con 3,8 μA. (k) Curves that expresses areas even with "MEDIUM PATHOLOGICAL CONDITIONS", whose example is given in fig. 7 and where the definition parameters have been elaborated for the organs and with the delimitations hereinafter reported (curves are referred to theoretic patients whose zero resistance was re-elaborated at 250KΩ): 1. DUODENUM (point AT-88) whose principal points of definition are: "a" (equivant to +25 FTDB) with +1 ,2 μA; "-a" (equivalent to -25 FTDB) with -1 ,4 μA. 2. BLADDER (point AT-92) whose principal points of definition are: "a" (equivalent to +25 FTDB) with +2,5 μA; "-a" (equivalent to -25 FTDB) with -2,5 μA. 3. URETHRA (point AT-94) whose principal points of definition are: "a" (equivalent to +25 FTDB) with +2,0 μA; "-a" (equivalent to -25 FTDB) with -2,0 μA. 4. KIDNEY (point AT-95) whose principal points of definition are: "a" (equivalent to +25 FTDB) with +2,5 μA; "-a" (equivalent to -25 FTDB) with -2,3 μA. 5. LIVER (point AT-97) whose principal points of definition are: "a" (equivalent to +25 FTDB) with +2,8 μA; "-a" (equivalent to -25 FTDB) with -3,1 μA. 6. SPLEEN (point AT-98) whose principal points of definition are: "a" (equivalent to +25 FTDB) with +1,5 μA; "-a" (equivalent to -25 FTDB) with -1 ,0 μA; ; "-b" (equivalent to -50 FTDB) with -3,0 μA, . Curves that expresses areas with "LIGHT PATHOLOGICAL CONDITIONS AND/OR TO REFER TO OTHER PARAMETERS". "MEDIUM PATHOLOGICAL CONDITIONS", whose example is given in fig. 8 and where the definition parameters have been elaborated for the organs and with the delimitations hereinafter reported (curves are referred to theoretic patients whose zero resistance was re-elaborated at 250KΩ) : 1. URETER (point AT-80) whose principal points of definition are: "-a" (equivalent to -25 FTDB) with +4,25 μA; SYNTHETIC DESCRIPTION OF FIGURES Other characteristics and advantages of the invention will become clear from the description hereinafter of a way to carry out the invention given as non limitative example and represented from the following figures. Figura 1 - scheme of the reflexological instrument of measure. Figura 2 - measure probe - magnification of the contact point - magnification of the contact between probe and auricular pavilion. Figura 3 - instrument with measure of diagnostic parameters by means of Micro Amperometer. Figura 4 - instrument with measure of diagnostic parameters by means of Resistive Divider. Figura 5 - instrument with measure of diagnostic parameters by means of Variable Resistive Divider Net. Figura 6 - Conversion Table "μA-FTDB" for measures that put in evidence "Strong pathologies" Figura 7 - Conversion Table "μA-FTDB" for measures that put in evidence "Medium pathologies " Figura 8 - Conversion Table "μA-FTDB" for measures that put in evidence pathological situations to refer to other reflexological points before to define validity/seriousness of measures. Referring to fig. 1 with (1) is indicated the ear which undergoes to auricular diagnostic, with (2) transductor: Auricular-point/Electric-Resistance, with (3) Matrix for the conversion in FTDB of all the potentially possible values, with (4) a computer with Body-Scanning program, with (5) the diagnostic result expressed in FTDB. Fig. 2 represents a measure probe (6) that with an insulated block (7) carries a contact point (8) that can be moved between a level A (all out) and a level B (all in) in order to realize a calibrated pressure from "A" to "B" of 65 gr. - the magnification of the contact point (8) shows that the contact surface is rounded - the magnification of the contact between contact point (8) and auricular pavilion (9) shows a surface of contact (10) of 1 ,95 mm 2 . In fig. 6 is represented the conversion table "μA-FTDB" for measures that put in evidence "strong pathologies" , where with (11) areas without pathological conditions are indicated; with (12) ) areas with light pathological conditions are indicated; with (13) ) areas with medium pathological conditions are indicated; with (14) ) areas with strong pathological conditions are indicated. The value of "μA " of the Data- base has been elaborated translating experimental measurement, made on the patients under examination, as they were made on "theoretical patients" whose zero-resistance had a constant value of 250 KΩ (the elaboration is necessary to uniform the measure standard of FTDB). The limit values (c) and (- d) are obtained using a value double regarding to the maximum experimental measure that has been got in that point; measures that put in evidence even greater lack of balance are put on the same value of the curve FTDB, having already indicated a serious pathological condition. In fig. 7 is represented the conversion table "μA-FTDB" for measures that put in evidence "medium pathologies", where with (11) areas without pathological conditions are indicated; with (12) ) areas with light pathological conditions are indicated; with (13) ) areas with medium pathological conditions are indicated. The value of "μA " of the Data- base has been elaborated translating experimental measurement, made on the patients under examination, as they were made on "theoretical patients" whose zero-resistance had a constant value of 250 KΩ (the elaboration is necessary to uniform the measure standard of FTDB). The limit values (c) and (- c) are obtained using a value double regarding to the maximum experimental measure that has been got in that point; measures that put in evidence even greater lack of balance are put on the same value of the curve FTDB, having already indicated the maximum pathological condition that the reflexological point under examination allows. In fig. 8 is represented the conversion table "μA-FTDB" for measures that put in evidence patholgical situations to be referred with other reflexological points before it is possible to define the validity/seriousness, where with (11) areas without pathological conditions are indicated; with (12) areas with light pathological conditions are indicated. The value of "μA " of the Data- base has been elaborated translating experimental measurement, made on the patients under examination, as they were made on "theoretical patients" whose zero-resistance had a constant value of 250 KΩ (the elaboration is necessary to uniform the meausre standard of FTDB). The limit values (a) and (- b) are obtained using a value double regarding to the maximum experimental measure that has been got in that point; measures that put in evidence even greater lack of balance are put on the same value of the curve FTDB, having already indicated a pathological condition to be defined with a reflexological correlation. The present invention of course is not limited to the representation given by the figures, but it may receive improvements and modifications by the man skilled in the art, without going out from the frame of the invention. The present invention allows numerous advantages and to overcome difficulties that could not be won with systems actually in commerce.

Claims: CLAIMS 1. Instrument of reflexological measurement to standardize and classify a new measure unity for the electromedical sector made by a measure probe (1), by a transduction system (2), by a matrix for the conversion in FTDB of all the values potentially possible (3), by a computer with a body- scanning program (4) characterized by the fact that the instrument uses as system of transduction/measure a resistive net with "Variable- Resistive-Dividers", structured in combination and configured in series and/or parallel. 2. Instrument of reflexological measurement to standardize and classify a new measure unity for the electromedical sector according to claim 1 characterized by the fact that the net is with "Variable-Resistive-Dividers", and these are inserted both on the positive branch and on negative branch and therefore said net is adapt to make comparison measurement (for a greater precision) and/or different systems of transd uction/balancing . 3. Instrument of reflexological measurement to standardize and classify a new measure unity for the electromedical sector according to claim 2 characterized by the fact that the net with "Variable-Resistive-Dividers" uses a net of analogical switches and: a) closes electrically the reflexological point under examination activating controls: Swd , Swc2, Swc3, Swc4; b) opens electrically the reflexological point under inactivating the controls: Swd , Swc2, Swc3, Swc4; c) polarizes in a positive way the reflexological point under examination activating controls: Swc2, Swc4; d) polarizes in a negative way the reflexological point under examination activating controls: Swd , Swc3. And from these configurations activates therapeutical phases and/or of reflexological balancing. 4. Instrument of reflexological measurement to standardize and classify a new measure unity for the electromedical sector according to claim 1 characterized by the fact that the net with "Variable-Resistive-Dividers" using a net of analogical switches supplies to the reflexological points under examination gradients of electrical potential of different shape, lasting, and typology. 5. Instrument of reflexological measurement to standardize and classify a new measure unity for the electromedical sector according to claim 1 characterized by the fact that the contact point (8) of the measure probe (6) is retractile from a level "A" (all out) to a level "B" (all in) and assures a pressure of 65 gr between contact point (8) and skin (1). 6. Instrument of reflexological measurement to standardize and classify a new measure unity for the electromedical sector according to claim 5 characterized by the fact that the contact point (8) offers to the skin (1) a contact surface (10) with a spherical shape uniformly lowered whose maximum diameter is 1 ,5 mm while the minimum diameter is 0,66 mm. 7. Instrument of reflexological measurement to standardize and classify a new measure unity for the electromedical sector according to claim 5 or 6 characterized by the fact that the contact point (8) is made with a conductive material. 8. Method for the reflexological measure that uses an instrument of reflexological measurement to standardize and classify a new measure unity for the electromedical sector according to one of the preceding claims characterized by the fact that the process of standardization requires to structure a series of curves/matrixes-FTDB of transduction, which, for any specific organ to evaluate, are loaded, in the programming phase, in a computer to be later on recalled when it is required to elaborate/express the diagnosis in FTDB. 9. Method for the reflexological measure that uses an instrument of reflexological measurement to standardize and classify a new measure unity for the electromedical sector according to the preceding claim characterized by the fact that it expresses its values of transduction, using "operative-areas" that circumscribe immediately the entity of the pathology.

Inventors: FERRARO VINCENZO, TKACHENKO YURI, FERRARO, VINCENZO, TKACHENKO, YURI
Applicants: FERRARO VINCENZO, META INSTR S R L, TECNAP S R L, TKACHENKO YURI, FERRARO, VINCENZO, META INSTRUMENTS S.R.L., TECNAP S.R.L., TKACHENKO, YURI
Application year: 2000
Main classification: A61B5
IPC codes: A61B5, A61H39