the method of the invention , according to a preferred embodiment , is carried out by the following steps . 1 . measuring the electric resistance of the skin at the 24 baps in the feet and hands of the patient ( all measurements being held within the 0 - 20 micro - amperes range of current ); 2 . applying a stimulation to the baps by means of an electropunctural stimulator ; 3 . repeating the measurement of the electric resistance of the skin at the 24 baps ; 4 . taking electric resistance measurements of the 10 announcement points on the abdomen ; 5 . measuring the electrical resistance of the skin at the 12 sympathetic points in the paravertebral zone ( bladder meridian ); 6 . measuring the reference skin resistance at announcement points ( the middle anterior meridian ) and at sympathetic points ( the middle posterior meridian ), the number and location of which depend on the organ being diagnosed ; 7 . mathematically processing the collected information by a predetermined correlative algorithm . 8 . showing the resulting conclusion on display and / or printing it out graphically and / or in figures . the above numbers of announcement points and sympathetic points are measured when diagnosing git diseases . in other cases , smaller numbers may be measured , but in general the number of announcement points and sympathetic points to be measured depends on the system to be diagnosed . the stimulation is preferably carried out as follows : gi4 on the left arm , gi4 on the right arm , e36 on the left leg ( calf ) and e36 on the right leg ( calf ) are stimulated each for one minute . it is possible to stimulate two points simultaneously , firstly on the arm and then on the leg , or even all four points simultaneously , if the stimulator is so structured as to permit it . gi4 and e36 are called “ general influence points ”, because their stimulation makes all the systems in the organism more active simultaneously ( see zang , x ., “ acupuncture , electrotherapy ”, 1990 ; lee , m ., “ cardiovascular effects of acupuncture at tsu san li ”, 1975 ; kaada , b ., “ mechanisms of acupuncture analgesia ”, 1974 ; and portnov , f ., “ electropuncture ”, 1980 ). 1 . the value of the electroskin resistance is measured and is expressed in kω . the higher the electroskin resistance value , the lower the value of the current power in mka and vice versa . the manner of this measurement is illustrated in the scheme of fig3 . the active electrode ( 1 ) touches the patient &# 39 ; s arm . the passive electrode ( 2 ) is attached to his / her wrist . when the device is turned on , an electric chain is created . a stabilizer feeding the voltage ( 3 ) of 5 volts is introduced into the scheme . also , two resistors — r1 ( 4 ) and r2 ( 5 ) are included , with a summary resistance of 250 kω . the intensity of current in the chain without a patient does not exceed 20 microamperes ( according to ohm &# 39 ; s law : i = u ( r1 + r2 ), where u = 5 v ; r = 250 kωq i = 20 microamperes ). when a patient is included in the chain , he / she naturally brings his / her resistance into the chain . then , the intensity of the current is calculated , according to the following formula : i patient = u /( r1 + r2 + r patient ), where u = 5 v ; r1 = 230 kω ; r patient and i patient are unknown . the formula may be expressed differently : u =( i patient × r1 )+( i patient × r2 )+( i patient × r patient ). the intensity of current in the chain is constant throughout the testing . the voltage of 5 v is the summary voltage along the r1 resistor section , the patient &# 39 ; s r patient section and the r2 resistor section . within the r2 resistor section , a voltmeter scheme ( 6 ) is placed , which measures the voltage decrease along the resistor section with the resistance of 20 kω . thus , the intensity of current within the chain ( going through the bap ) can be calculated , using the following formula : i patient = u microchip / r2 , where r2 = 20 kω ; u = the exponent measured by the microscheme . the data of the intensity of current within the chain ( i . e ., the values of the current passing through the bap ), are transmitted to an aid convector , where they are converted into bytes , transmitted to the computer by the microcontroller through the rs - 232 port . knowing the intensity of current within the bap chain , it is easy to calculate its electrical skin resistance , having introduced the value of the current intensity into the following formula : i patient = u /( r1 + r2 + r patient ), r patient = u / i −( 1 + r2 ). the only unknown value here is the patient &# 39 ; s resistance ( which is the electroskin resistance of the bap ). it has been proven that in the announcement points , electric current readings in mka increase ( i . e ., their electroskin resistance decreases ) following active processes , while in segmental points the same thing happens following lengthy , inert processes . 2 . the readings from symmetrical points are compared . there exist 12 symmetrical ( twin ) meridians and two middle ( non - twin ) ones . all the twin meridians have a left and a right branch . that is why all the listed meridian points are twin points : they are localized both on the left and on the right branches of these meridians . symmetrical points are those found on the same meridian , but on its different branches , both their localization and their number being identical , for example , p9 on the left and p9 on the right ( on both hands ); e 25 on the left and e 25 on the right ( on the abdomen ). if the difference in the readings of the symmetrical points on the front surface of the body exceeds 25 %, it signals that there is an active process ( acute or chronic one in an acute condition ) in the given index zone . if there is a difference of less than 25 % on the back , it is a sign of an inert process going on in the corresponding organ . 3 . the readings of corresponding announcement points and segmental points ( correlated along the segmental chain ) are compared . if the difference between the data of the announcement points and the corresponding segmental points exceeds 1 . 25 , it signals an active process going on in the organ situated in the examined segment , while if the ratio is less than 0 . 75 , it indicates a sub - acute process therein . 4 . the index of each announcement point is compared with that of the reference point , viz . relatively permanent electroskin resistance point j18 . if the ratio exceeds 0 . 75 - 1 . 25 , it means there is a problem in the organ this announcement point is responsible for ; if the ratio is higher than 1 . 25 , it may signal an active process . if it is less than 0 . 75 , it is an indication of a tendency towards an inert , sub - acute process . 5 . each segmental point &# 39 ; s readings are compared to the index of a “ relatively permanent electroskin resistance ” t14 - point . if the ratio is higher than 1 . 25 , it may signal an inert , sub - acute process in the corresponding organ ; if it is less than 0 . 75 , an acute process is suspected . 6 . the resulting coefficients , viz . the numerical data obtained from all the foregoing operations , are analyzed and compared with each other and , based on the results obtained , an opinion on the condition of a given organ and the processes going on there is formed . it is to be noted that it is important to take into account the ratios determined by steps 4 and 5 . there may be , for example , a situation when an active ( acute ) process is going on simultaneously in symmetrical organs ( as in both the ascending and descending sections of the large intestine ), or it may be that only one announcement point corresponds to a given organ ( as in the case of the stomach ). in such situations , the reading comparisons of step 2 are inadequate , while the ratios determined in step 4 may indicate an acute process going on in the corresponding organ . before testing , the baps must be treated with 70 % ethyl alcohol solution to avoid possible effects of sebum , humidity or impurities that may be present on the skin , on the results of the test . since the points are affected by very low ( 0 - 20 ) electric current , no damage is done to their energy potential during the very short time of testing . they can be scanned up to five times each . this allows use of special underload tests . these tests are conducted with the help of the electropunctural device ( electroneurostimulator ) hereinbefore discussed . it acts upon special baps on the extremities ( 4 points ) for one minute . it is with the help of these underload tests that one can differentiate between functional and organic disorders of the digestive organs . the effect for this underload test lasts for about 10 minutes . during this time , the physician can repeat the measurements on the 24 source points on the extremities and on the 22 points ( announcement and sympathetic ) on the patient &# 39 ; s body . the information collected from the 48 source points ( both before and after the underload test ) is analyzed separately from the data received from announcement points and sympathetic points . the data received from the 24 baps are added together and divided by 24 . the resulting averages are used to draw a diagram in which they are plotted as the ordinate on the vertical axis , in which the baps are marked as the abscissa , and afterwards are connected by a line into a curve , the so - called individual isoelectrical curve of the given patient . above and below this isoelectrical curve are another 2 parallel lines denoting the normative corridor of the patient . the width of the corridor depends on his / her energy potential . the notion “ human energy potential ” is a composite notion . the man &# 39 ; s energy potential consists of physiological processes in the organism , such as the interrelation between the functioning of the cortical and subcortical structures of the central nervous system ; the hormonal balance of the organism ; the immune system &# 39 ; s condition ; its blood circulation and lymph flow ; the way its inner organs function and much more . a given person &# 39 ; s energy potential is determined by the condition of his / her homeostasis . the energy potential manifests itself through the physical parameters of the baps , representative of organs and systems . measuring their electroskin resistance , one can evaluate the given organism &# 39 ; s energy potential . the width ( span ) of the normative corridor taken from literature is 2 . 5 microamperes with fluctuations of 25 %, depending on the average value of the given patient &# 39 ; s electroskin resistance . the 24 baps examination normal corridor span ( range ) has been calculated by many authors ( j . nakatani , 1956 ; m . hyodo , 1977 ; v . portnov , 1982 ) and is approximately 2 . 5 mka . this range depends on the given person &# 39 ; s individual characteristics , as different patients ( depending on their race , environment , situation , place of residence , etc .) have different normal baps electroskin resistance . when calculating a given patient &# 39 ; s normal corridor , we try to foresee his or her individuality and use defining coefficients , such as those of macumoto , kabayashi , 1982 . an individual normal corridor varies within a 15 % range . [ 0056 ] fig4 schematically illustrates the process of the invention . the names of the 24 baps are written in parallel to the horizontal axis . the current measured at each point is marked on the ordinate . the normal corridor is shown as a horizontal stripe . the current readings falling within the corridor mean that there is no problem in the meridian ( and its corresponding organ ). if the figure appears above the normative corridor , the meridian is in an active state , its energy is too high . if the figure is below the corridor , the meridian &# 39 ; s energy is too low . in the classical nakanty method ( japan , 1956 ) measurements are conducted in a similar way , but the difference is that one and the same average normative corridor is used for all the patients , and the 24 baps are measured only once , while in the case of this invention , it is possible to calculate and build the given patient &# 39 ; s individualized normative corridor after the first series of tests , which is afterwards compared to the second normative corridor based on the data from measurements aftert electrostimulation . the results of the comparison are analyzed , and based on the information about the resulting deviations , a diagnosis can be made . the above approach considerably decreases the percentage of mistakes in diagnostics . if the meridian is not within the normative corridor both before and after electrostimulation , there exists some organic disorder in the corresponding organ . if there are deviations in the meridian only before or after the stimulation , it means that there are only functional problems present in the corresponding organ . the algorithms of differentiated medical conclusions are based upon those typical of a given disorder association of meridian deviations , and not on a single meridian &# 39 ; s deflections . the resulting information can be either confirmed or questioned by conducting further testing of the announcement points and sympathetic points . they are measured straight after the completion of the first part of the test , first on the abdomen , and then on the back of the patient . then the zero energy of announcement points and sympathetic points is measured , the results treated with the help of a special program , and a medical conclusion is reached . if the diagnosis coincides with that of the first part of the test , it is confirmed . if not - additional testing should be conducted ( which is recommended by the program on the spot ). while embodiments of the invention have been described for purposes of illustration , it will be understood that the invention can be carried out with many modifications , variations and adaptations , without departing from its spirit or exceeding the scope of the claims .
a diagnostic method comprises selecting 24 biologically active points , measuring the skin resistance at the points , plotting the average resistance for the points as an isoelectric line and defining a normal corridor . a stimulation is applied to each of the points and thereafter the skin resistance is once again measured . the results of the two sets of measurements are compared and diagnostic conclusions are reached from their comparison .