TWM468292U - System and device for measuring impedance of skin with respect to signal of high middle or low frequency injected into skin - Google Patents

Abstract

The creation is related to a system and device for measuring impedance of skin with respect to a signal of a high, middle or low frequency, injected into a part of the human's skin, in particular to one of outputting the signal of the high, middle or low frequency, including a main wave and its carrier wave with the frequency, wave shape, power and pause time of the main wave and the frequency and wave shape of the carrier wave capable of being programmably preset within a safety limit, and injecting the signal into the part of the human's skin, such as an energy channel, acupuncture point, etc., for measuring an impedance variation value (hereinafter abbreviated as frequency spectrum value) of the skin with respect to the signal having various frequencies and wave shapes through retrieval and processing of a measuring signal, thereby serving as (1) a system for inspecting a health condition of the human, and (2) a reference for setting a preferable value of the signal of the high, middle or low frequency to be injected into the human's skin.

Description

A system that injects a high, medium, and low frequency signal into the human skin to measure the impedance of the skin to the signal. System and its device

The present invention relates to a system and apparatus for injecting a signal of high, medium and low frequency into human skin to measure the impedance of the skin to the signal, in particular to an output signal of one of the high, medium and low frequency outputs, the frequency, waveform and power of the main wave. The pause time, the frequency and waveform of the carrier and the waveform can be programmed to be output in a safely specified value, which is injected into the human skin in series, and is measured and processed by the measurement signal to measure the human skin (such as the human body). The meridian, acupoint, etc.) impedance change value (referred to as the electrical spectrum value) of the injected signal is used for (1) as a system for detecting a health condition of the body, and (2) as a preferred setting value of the high-medium-low-cycle injection signal. reference.

The high-middle and low-frequency treatment instrument can treat the pain of the body. The Chinese and Western medicine industry has been working for a long time. The effect of the instrument is determined by the waveform, frequency, pause time and power as the main output physical quantity. The traditional general high, medium and low frequency treatment instrument has the following disadvantages: a) The power of the traditional high, medium and low frequency therapy device can only be adjusted simply and cannot be set programmatically; (b) the frequency of the traditional therapeutic device is generally only available to the user with only a few frequencies. Cannot be set programmatically; (c) For traditional output waveforms, only a few fixed waveforms are generally available for selection. The user can programmatically set; (d) the traditional output power is generally a continuous waveform output or for several selective pause times, the pause time between waves can not be programmed; and (e) traditional The output waveform without carrier frequency and waveform can be programmed programmatically.

The traditional high school and low frequency therapy device does not combine the measurement of the impedance of the skin to the high, medium and low frequency injection signals. Therefore, the traditional ones have the following disadvantages: (1) The traditional high, medium and low frequency therapy device has no measurement design of the impedance change value of the injected signal. Therefore, the traditional high school and low frequency therapy device can not provide the user with the frequency, waveform, power, and pause time of the instrument as a better setting value (the temperature spectrum value tends to fall within the normal range after high, medium and low frequency treatment). According to the reference, according to the high-medium-low-frequency therapy device, the traditional therapeutic method for measuring the impedance of the injected electric wave is only used to measure the change of the impedance of the human body into the direct current, which is injected into the direct current. The device for measuring the change in skin impedance cannot measure the impedance change of the frequency and waveform signal applied to the non-direct current of the human body.

The measurement of the change of DC electrical impedance in human skin is currently recognized as a device for detecting the health of the body, such as the Japanese good guide system and the West German Dr. VoLL system. However, the measurement system for injecting high-medium-low-frequency (non-direct current) signals into human skin as a detection system for physical health and its application has not yet been available.

The human skin measures the change of DC electrical impedance to detect the health of the body, such as the Japanese good guide system, which can only provide the non-immediate physical health of the subject in a recent period of time (how long is uncertain) Status messages do not provide immediate information about the subject's infectious disease, related organ degradation, and related tumors.

In view of the lack of the above-mentioned techniques, the present invention provides a measurement system for measuring the impedance changes of human skin (such as the meridians, acupuncture points, etc.) of the human body to inject various frequencies and waveform signals. The value (electrical spectrum value), used to detect physical health, provides immediate and timely information about the subject's associated infectious disease, associated organ degradation, and related tumors.

This creation is about a system that injects high-medium and low-frequency signals into human skin to measure the impedance of the skin to the signal. The system of the present invention comprises: an energy output device having a high, medium, and low frequency, for generating a high, medium, and low frequency injection signal for applying the injection signal to a part of a subject or a user's body as the a device for inspecting the health condition of the subject or a device for treating the patient for treating the disease or pain; and a measuring device for the impedance of the skin to the injected signal, connected to the other part of the subject's body And forming a circuit loop with the injection signal of the body of the subject, and outputting a measurement signal through the circuit loop for measuring the impedance change value (electrical spectrum value) of the skin of the test subject according to the Whether the electrical spectral value falls within a range of conventional values is used to detect the physical health of the subject or as a preferred setpoint reference for the injected signal.

According to the present invention, a system for measuring the impedance of the skin to the human skin by measuring the impedance of the skin to the signal of the subject is used to detect the physical health of a subject, and the subject is immediately provided. Information on infectious diseases, related organ degradation and related tumors.

According to another object of the present invention, the present invention provides a system for injecting a high-medium-low-frequency signal into a human skin to measure the impedance of the skin to the signal for detecting the physical health of a subject, which includes: An energy output device having a high, medium, and low frequency, comprising: an input device for generating a high, medium, and low frequency that can be programmed (the low frequency refers to a frequency below 1 kHz, and the middle frequency refers to a frequency between 1 kHz and 100 kHz, and the high frequency refers to 100KHz~5MHz) The frequency, waveform, power and pause time of a main wave, and the frequency and waveform of one of the carrier input data; a programmable logic gate for programming the hardware logic gate to control the logic of the system a microprocessor coupled to the input device and the programmable logic gate, coupled to the microprocessor via an application program for computing the input data and outputting the corresponding programmable main wave Frequency, waveform, power and pause time, and the first digital data of one of the carrier frequency and waveform; a programmable main wave and carrier frequency waveform generator connected to the microprocessor, having a set of digital analog converters, Two programmable analog switches, and a first low pass filter device having n first filters (n is an integer greater than 0), the set of digital analog converters for the first number The data is converted into an analog frequency, a waveform, a pause time, and a frequency and waveform signal of the carrier wave, and the first low pass filter device is configured to filter the resonance noise of the digital analog converter. Generating a first waveform signal according to the first digital data output by the microprocessor to generate a programmable waveform, frequency, pause time, and frequency and waveform of the carrier wave, and the two programmable circuits Analog switches are respectively connected to the two sides of the first low pass filter device for programmatically matching a filter for selecting a desired frequency band; a programmable power amplifier connected to the programmable main wave and carrier frequency waveform Generator, The second waveform signal for amplifying the power of the first waveform signal to generate a suitable power; a programmable output outputter connected to the programmable power amplifier, inputting the second waveform signal, and passing Programmably selecting one of the first contact conductive members to be converted into a portion of the body of the subject to be injected into the subject; and a measure of impedance of the skin to the injected signal, comprising: a programmable input device And serially connecting to another portion of the body of the subject by programmably selecting one of the second contact conductive members, forming a circuit loop with the injection signal to output a first measurement signal; a programmable measurement a signal amplifier that inputs the first measurement signal of the programmable input device for amplifying the first measurement signal to output a second measurement signal; and a second low pass filter device connected to the programmable measurement signal An amplifier having two programmable analog switches and n second filters (n is an integer greater than 0, the same below) for filtering the noise of the second measurement signal Outputting a third metric signal; an analog-to-digital converter connected to the second low-pass filter device for converting the third metric signal from the analog signal to a second digital data and outputting the signal to the microprocessor Using the microprocessor to process the second digital data; and an output device for displaying an output signal processed by the microprocessor, which represents the subject after the injection of the injected signal to the body The impedance change value (electrical spectrum value) of the body to the injected signal is used to detect the physical condition of the subject. The output device is also used to display related data input by the input device.

According to the creation, the human skin is injected with a signal of high, medium and low frequency to measure The skin's electrical spectrum value for the signal is a percentage value that is the value of the impedance of the injected signal that is not passed through the human skin divided by the percentage of the impedance value of the injected signal via the human skin.

According to another object of the present invention, the present invention provides a signal for injecting high, medium and low frequency (low frequency refers to frequency below 1 kHz, medium frequency refers to frequency between 1 kHz and 100 kHz, and high frequency refers to 100 kHz to 5 MHz). In a system for the impedance of the skin to the signal, the present invention provides an energy output device having a high, medium, and low frequency, comprising: an input device for generating a programmatically set frequency of a main wave having a high, medium, and low frequency, Waveform, power and pause time, and one of the carrier frequency and waveform input data; a programmable logic gate for programming the hardware logic gate to control the logical combination of the system; a microprocessor connected to the input The device and the programmable logic gate are combined with the microprocessor to calculate and process the input digital data and output a corresponding programmable main wave frequency, waveform, power and pause time, and a first digital data of the frequency and waveform of the carrier; a programmable main wave and carrier frequency waveform generator connected to the microprocessor and having a set of digits An analog converter, two first programmable analog switches, and a first low pass filter device having n first filters (n is an integer greater than 0), the set of digital analog converters for the first The digital data is converted into an analog frequency, a waveform, a pause time, and a frequency and waveform signal of the carrier wave, and the first low pass filter device filters the resonant noise of the digital analog converter. Generating a programmable waveform, frequency, pause time, and carrier of the main wave according to the first digital data output by the microprocessor a first waveform signal is outputted by the frequency and the waveform, wherein the two first programmable analog switches are respectively connected to the two ends of the first filter for programmatically selecting a filter of a desired frequency band; a programmable power amplifier coupled to the programmable main wave and carrier frequency waveform generator for amplifying the power of the first waveform signal to generate a second waveform signal of an appropriate power; and a programmable output outputter And connecting to the programmable power amplifier, inputting the second waveform signal, and converting the injected signal into a part of the body of the subject by programmably selecting one of the first contact conductive members.

According to the present invention, preferably, the programmable main wave and carrier frequency waveform generator comprises: a set of digital analog signal converters electrically connected to the microprocessor for generating a first analog signal; a program analog switch, electrically connected to the set of digital analog signal converters, for inputting the first analog signal, the programmable selection generates an nth switching signal; a first low pass filter device electrically connected to the first a programmable analog switch having n first filters, an nth filter for receiving the nth switching signal to generate an nth filtered signal of a desired frequency band, wherein the n first filters are preferred a first low frequency filter, a first intermediate frequency filter, and a first high frequency filter; and a second programmable analog switch electrically connected to the first low pass filter device for programming The input selects the nth filtered signal to output a first waveform signal.

According to the present invention, the energy output device having high, medium and low frequency is preferably further included A USB interface is electrically connected to the microprocessor for connecting to an external personal computer for displaying a measurement result and related measurement data storage and operation on the display of the external personal computer.

According to another object of the present invention, the present invention provides a system for injecting high-medium and low-frequency signals into human skin to measure the impedance of the skin to the signal. According to the present creation, the skin of the present invention has an impedance to the injected signal. The measuring device comprises: a programmable input device, and programmatically selecting one of the second contact conductive members and serially connected to another part of the body of the subject, forming a circuit loop with the injection signal, And outputting a first measurement signal through the circuit loop; a programmable signal amplifier inputting the first measurement signal of the programmable input device for amplifying the first measurement signal to output a second measurement signal; a second low pass filter device coupled to the programmable signal amplifier having two programmable analog switches and n filters (n is an integer greater than 0) for filtering the noise of the second measurement signal a third metric signal is coupled to the second low pass filter device for converting the third metric signal from the analog signal to Digital data is output to the microprocessor for processing the digital data by the microprocessor; and an output device is configured to display an output signal of the result processed by the microprocessor, which represents the pair of the subject After the injection signal is applied to the body, the impedance change value (electrical spectrum value) of the body to the injected signal is used to detect the physical condition of the subject, wherein the electrical spectrum value is a percentage value, and the percentage value is The impedance value of the injected signal is not divided by the human skin by the percentage value of the impedance value of the injected signal via the human skin (electrical spectrum) value).

According to the present invention, the second low-pass filter device includes: a third programmable analog switch connected to the programmable signal amplifier for inputting the second measurement signal, and the programmable output is an nth programmable a second filter connected to the third programmable analog switch for inputting the nth programmable signal to generate an nth frequency band signal of a desired frequency band, wherein the n is the second The filter includes a second low frequency filter, a second intermediate frequency filter, and a second high frequency filter, and the operation is performed by the first low frequency filtering of the n first filters of the first filter device a first intermediate frequency filter and a first high frequency filter corresponding to and selectable by a program; and a fourth programmable analog switch connected to the n second filters for programmable input of the first An n-band signal to output a third metric signal.

According to the present invention, the system for injecting one of the high, medium, and low frequency signals into the human skin to measure the impedance of the skin to the signal further includes a fixed signal amplifier and an overcurrent detector connected to the programmable input. For amplifying the first measurement signal, the overcurrent detector is connected to the fixed signal amplifier, and when the amplified first measurement signal current exceeds a programmablely set predetermined value or a human body safety prescribed maximum current And outputting an overcurrent detection signal to the output overcurrent safety switch of the programmable output output device and the input overcurrent safety switch of the programmable input device, and the programmable output output device and the programmable program The distribution input device is turned off, so that the second waveform signal is not injected into the subject, so as to prevent the subject from being damaged by excessive current, and the overcurrent detection signal is also input into the microprocessor through the microprocessor. An overcurrent detection message is sent to an LED digital display to indicate an overcurrent condition.

According to the present invention, the frequency of the main wave of the high-medium-low-cycle injection signal can be programmed at a frequency of 5 MHz or less. Preferably, when the frequency of the main wave is below 100 kHz, the frequency and waveform of the carrier wave can also be programmed. Ground setting.

According to the present invention, preferably, the injection signal is applied to a part of the body of the subject, which is a skin, acupuncture or meridian of the human body.

According to the present invention, the energy output device having high, medium, and low frequency includes a memory connected to the microprocessor for memorizing data processed by the microprocessor and data of the system itself.

According to the present invention, preferably the memory is a flash memory (FROM) or a static memory (SRAM).

According to the present invention, preferably the input device is a key combination.

According to the present invention, preferably the output device is an LED digital display.

According to the present invention, preferably, the first contact conductive member is a conductive patch, a metal pedal, a metal hand grip or a hand grip bar.

According to the present invention, preferably, the first contact conductive member further includes a detecting disk electrically connected to the programmable output output device for electrically transmitting a message of a substance (such as a drug or the like) carried thereon to the Programmable output output.

According to the present invention, preferably, the second contact conductive member is a conductive patch, a metal pedal, a metal hand grip, or a hand detecting probe, and the hand detecting probe is controlled by a detector (or The tester himself is to measure the probe of the subject's measurement point.

According to the present invention, the main wave of the first waveform signal may be a sine wave, a square wave, a triangle wave or other waveforms and the waveform of the carrier may also be programmed.

According to the present invention, the system for injecting one of the high, medium and low frequency signals to the human skin to measure the impedance of the skin to the signal is used to detect the health of the body by the human current safety value.

Because of the detection of different organ degradation (disease) or different infectious diseases, each has its own corresponding injection signal. According to the system of the present invention, the frequency, waveform, power and pause of the main wave of the high, medium and low frequency injection signal are respectively Time, and the frequency and waveform of its carrier, can be programmed to adjust to different organ degradation (diseases) or different infectious diseases, with better corresponding measurement of the injected signal, so that the measurement signal is better. Signal/noise ratio (S/N value), 俾 obtain accurate electrical spectrum value, and thus the measured electrical spectrum value can more accurately provide the subject related organ degradation (disease) or infectious infectious disease Interpretation of health status. For detecting liver organ degradation (disease), the injection signal of the corresponding corresponding measure is set to a square wave with a frequency of 10.0 Hz, a pause time of 0 seconds, and a carrier frequency of 200 Hz sine wave, the power is The main wave amplitude is 1.0V.

According to the present invention, a system for injecting a high-medium-low-frequency signal into a human skin to measure the impedance of the skin to the signal, and a device for detecting the health of the body, wherein the electrical spectrum value is not via the human skin. Injecting the impedance value of the signal (ie, directly outputting the injected signal and the input first measurement signal without human skin, as shown in FIG. 2, the switch S in the programmable output 204 can be directly short-circuited and closed. Divided by the percentage value of the impedance value of the injected signal through the human skin. The relevant measurement part of the relevant organ (referred to as the measurement point) combined with the electrical spectrum value, according to the research and statistical results of a large number of related organ degradation (disease) according to the creation system, the health of the related organs can be judged according to the results. The condition is inflamed, normal, degraded and severely degraded. According to an embodiment, a related organ, such as a liver organ, has a health condition and an electrical spectrum value range as shown in Table 1 below:

Moreover, in the measurement of the health status of different related organs, the electrical spectrum values of the table 1 may also be in different ranges.

Moreover, when measuring the same measurement point of the same organ, the electrical spectrum value may also be set by different percentage values (different amplification ratios have different electrical spectrum values, for example, the electrical spectrum value below the three percentage value is The three-fold electrical spectrum value of the percentage value is a different value. The electrical spectral values within this creation are referred to as percentage values.

According to the present invention, there is provided a system for injecting a signal of a high, medium, and low frequency into a human skin to measure the impedance of the skin to the signal for use by a user in a system for treating disease or pain.

100,200‧‧‧System for injecting high-medium and low-frequency signals into human skin to measure the impedance of the skin to the signal

102‧‧‧External personal computer

1021‧‧‧USB interface

2001‧‧‧Energy output device with high, medium and low frequency

2002‧‧‧Measurement of the impedance of the skin to the injected signal

201‧‧‧Microprocessor

2011‧‧‧Key Combination

2012‧‧‧LED digital display

2013‧‧‧Programmable logic gate

2014‧‧‧ memory

2015‧‧‧ first digital data

202‧‧‧Programmable main wave and carrier frequency waveform generator

2021‧‧‧Digital analog signal converter

20211‧‧‧First analog signal

2022‧‧‧First low pass filter device

2023‧‧‧First waveform signal

2024‧‧‧First programmable analog switch

20241‧‧‧First switch signal

20242‧‧‧Second switch signal

20243‧‧‧ Third switch signal

2025‧‧‧Second programmable analog switch

20221‧‧‧First low frequency filter

202211‧‧‧First filtered signal

20222‧‧‧First IF Filter

202221‧‧‧Second filter signal

20223‧‧‧First high frequency filter

202231‧‧‧third filtered signal

203‧‧‧Programmable Power Amplifier

2031‧‧‧second waveform signal

204‧‧‧Programmable Output Exporter

2041‧‧‧Injection signal

2042‧‧‧Output overcurrent safety switch

205‧‧‧programmable input device

2051‧‧‧First measurement signal

2052‧‧‧Input overcurrent safety switch

20521‧‧‧Fixed Signal Amplifier

206‧‧‧Programmable signal amplifier

2061‧‧‧Second measurement signal

207‧‧‧Second low pass filter device

2071‧‧‧ third measurement signal

20721‧‧‧Second low frequency filter

207211‧‧‧First band signal

20722‧‧‧Second IF filter

207221‧‧‧second frequency band signal

20723‧‧‧Second high frequency filter

207231‧‧‧ Third band signal

2073‧‧‧ third programmable analog switch

20731‧‧‧First programmable measurement signal

20732‧‧‧Second programmable signal

20733‧‧‧ third programmable measuring signal

2074‧‧‧4th programmable analog switch

208‧‧‧Overcurrent detector

209‧‧‧ analog digital converter

2091‧‧‧second digital data

2003‧‧‧First contact conductive member

A1, A2, A3, A4‧‧‧ conductive patch

B1, B2‧‧‧ metal hand grip

C1, C2‧‧‧ metal pedals

D1‧‧‧ test disk

F1‧‧‧Hand grip test stick

2004‧‧‧Second contact conductive member

A1', A2', A3', A4'‧‧‧ conductive patch

B1’, B2’‧‧‧Metal hand grip

C1’, C2’‧‧‧Metal pedals

E1‧‧‧Hand grip detection probe

3‧‧‧ Subjects

31‧‧‧Circuit signal

S‧‧ switch

2081‧‧‧Overcurrent detection signal A

The first picture is a kind of artificial injection of high-medium and low-frequency signals on human skin to measure the skin. A schematic representation of the system of impedance of the signal to the signal.

Figure 2 is a circuit block diagram of a system for injecting one of the high, medium, and low frequency signals into the human skin to measure the impedance of the skin to the signal.

Figure 3 is a schematic diagram of the injection signal (the frequency, waveform, pause time, power and carrier of the injected signal or a therapeutic wave) of the present invention.

Figure 4 is a schematic diagram of the carrier on the main wave of the injected signal of the present invention.

The definition of human health and unhealth in this creation is "normal measurement" in the theory of Chinese and Western medicine. That is, if the physiological value of the human body of a subject falls within the range of the normal value of the human body (normal state), the human body is in a healthy state. On the contrary, if the physiological data of the human body falls outside the range of the conventional value (abnormal state), the human body is in an unhealthy condition (lesion). For example, blood routine examination of Western medicine, GOT, GPT is the main distinguishing item for examining liver diseases, among which The conventional GOT value is below 37K units/ml and the GPT conventional value is below 42K units/ml. If the two are not within the range of the conventional value, the liver of the subject is determined to be unhealthy according to the normal measurement. (Unusual condition), it is necessary to track the health of the subject's liver; as in Chinese medicine to diagnose the disease, the normal (healthy) pulse is called Pingmai, others such as floating vein, Shenmai, number Pulses, delayed veins, etc. are all abnormal blood vessels, and according to this (using constant measurement), they are identified as various unhealthy conditions of the body. In a preferred embodiment of the present invention, a system for measuring the impedance of the skin to the signal by injecting a signal of high, medium, and low frequency to the human skin, as shown in Table 1, the electrical spectrum value falls within the range of the human body's conventional value. , in a normal condition (health condition); on the contrary, if the electrical spectrum value falls outside the range of the normal value, it is in an abnormal condition (unhealthy condition).

Please refer to FIG. 1 and FIG. 2 . FIG. 1 is a schematic diagram of a system for injecting high-medium and low-frequency signals into human skin to measure the impedance of the skin to the signal. FIG. 2 is a pair of the present creation. A circuit block diagram of a system 200 (corresponding to 100 of FIG. 1) in which human skin is injected with a signal of high, medium, and low frequency to measure the impedance of the skin to the signal, and the human skin is injected with a high, medium, and low frequency signal to measure the skin. The impedance system 100 has a body 101. The body 101 is electrically connected to the outside to programmatically select a conductive patch A1, A2, A3, A4, a metal hand grip B1, B2, a metal pedal C1, C2, and a first contact conductive member 2003. One of the detecting disc D1 and the grip detecting rod F1, and a conductive patch A1', A2', A3', A4' of a second contact conductive member 2004, a metal grip bar B1', B2', One of the metal pedals C1', C2', and the hand detecting probe E1. When a subject uses the present metric system for detecting liver organ health, as shown in FIG. 2, the system provides a signal of high, medium, and low frequency, and the subject 3 holds the first contact conductive member 2003 in one hand. The hand holds the detecting rod F1, whereby the signal of the high, medium and low frequency is converted into an injection signal, injected into a part of the body of the subject 3, and the second contact conductive member 2004 is held by a detecting person. Detecting that the probe E1 contacts the relevant measurement site (measurement point) of the relevant organ of the subject (for example, detecting the liver organ measurement point is the inner part of the thumb of the left and right feet of the human body) to form a circuit loop, which can be An LED display 2012 displays the electrical spectral value that does not pass through the human skin (the injected signal directly passes the second waveform signal 2031 via the programmable output outputter 204 in an unloaded state, ie, without human skin. The switch S can be directly closed to directly close the first measurement signal 2051 at the rear end of the programmable input device 205, and the impedance value of the injection signal is divided by the human skin (the injection signal is negative) As the second state detection circuit paths FIG follow) the percentage value of the impedance value of the injected signal. The energy output device having a high, medium, and low frequency further includes a USB interface 1021 electrically connected to the microprocessor 201. Provided for connection to an external personal computer 102 (for example, a personal computer, a notebook computer, etc.) for displaying a measurement result and storing and using the related measurement data on the display of the computer.

Please refer to FIG. 2, which is a circuit block diagram of a system 200 (the same as FIG. 100) for injecting one of the high, medium and low frequency signals into the human skin to measure the impedance of the skin to the signal. The high-medium-low-frequency energy output device 2001 and a skin-to-injection signal measurement device 2002, the high-medium-low-cycle energy output device 2001 includes a microprocessor 201. The system 200 further includes: a button combination 2011 electrically connected to the microprocessor 201 for generating an input setting related frequency, waveform, power and pause time of the main wave of the high, medium and low frequency, and the frequency and waveform of the carrier Related data, the input waveform can be sine wave, square wave, triangle wave, trapezoidal wave, or other waveforms of various shapes; when inputting other irregular shape waveforms, only relevant waveform data of irregular waveform must be input. An LED digital display 2012 is electrically connected to the microprocessor 201 for displaying the measurement related value (electrical spectrum value) of the measurement system and related data input by the button combination 2011; a programmable logic gate 2013 is electrically connected to the microprocessor 201 for programming hardware logic to control a logical combination of the device system hardware; a memory 2014 is electrically connected to the microprocessor 201 for storing and storing the microprocessor Processing data and program data.

The high-medium-low-cycle energy output device 2001 includes a programmable main wave and carrier frequency waveform generator 202 for outputting the frequency, waveform, and pause time of the main wave and the frequency of the carrier according to the microprocessor. A first digital data associated with the waveform generates a first waveform signal 2023 including a set of digital analog converters 2021 and a first low The pass filter device 2022 is configured to convert the first digital data 2015 into a first analog signal, and then pass the first analog signal through the first low pass filter device 2022 to filter out The first analog signal 2023 of the high, medium, and low frequency is output by the resonant noise of the digital analog converter 2021. Among them, the low frequency is below 1 kHz, the mid-cycle frequency is 1 kHz to 100 kHz, and the high frequency is 100 kHz to 5 MHz.

According to the present invention, the programmable main wave and carrier frequency waveform generator 202 includes: a set of digital analog signal converters 2021 electrically connected to the microprocessor 201 for generating a first analog signal 20211; The programmable analog switch 2024 is electrically connected to the set of digital analog signal converters 2021 for inputting the first analog signal 20211 and can be programmed to output an nth switching signal 20241, 20242, 20243 (n is an integer greater than 0) a first low pass filter device 2022, the first programmable analog switch 2024 is electrically coupled to a first through nth filter 20221, 20222, 20223, the nth filter 20221, 20222, 20223 being used for input Corresponding the nth switching signals 20241, 20242, 20243 to generate an nth filtering signal 202211, 202221, 202231; and a second programmable analog switch 2025, electrically connected to the first low pass filter device 2022 and The micro-processing device 201 is configured to input the corresponding n-th filtering signals 202211, 202221, 202231 to output the first waveform signal 2023. In a preferred embodiment of the present invention, the nth filters 20221, 20222, and 20223 are a first low frequency filter 20221, a first intermediate frequency filter 20222, and a first high frequency filter 20223, respectively.

The first waveform signal 2023 is input to a programmable power amplifier 203 to The power of the first waveform signal 2023 can be programmed to be amplified (also attenuated) within a safe range of the system power supply voltage to generate a second waveform signal 2031, and the programmable power amplifier 203 is electrically connected to the programmable Main wave and carrier frequency waveform generator 202.

The second waveform signal 2031 is input to a programmable output outputter 204, and is electrically connected to the selected one of the first contact conductive members 2003 via a programmable selection of the programmable output output unit 204 for converting the second waveform signal 2031. The second waveform signal 2031 is formed into an injection signal 2041 (the injection signal for checking the physical health condition of the subject or the treatment wave for treating the disease or pain by the user), for example, a subject 3 to the conductive patch A1 Pressing on a part of the subject's 3 hands, the other hand of the subject 3 (or another tester) holds the hand gripper E1 to contact the subject 3 The relevant measurement site (measurement point) of the organ is such that a loop signal 31 is generated to flow through the body of the subject 3, and the injection signal outputted by the device is injected into the body of the subject 3 in series.

Then, the loop signal 31 is input to the skin of the system 200 by the selected one of the second contact conductive members 2004 to the impedance of the injected signal. The device 205 can be programmed to input the input device 205. Measurement signal 2051.

Then, the first measurement signal 2051 is input to a fixed signal amplifier 20521. The fixed signal amplifier 20521 is connected to the programmable input device 205 for amplifying the first measurement signal 2051, and an overcurrent detector 208 is connected to The fixed signal amplifier 20521 is amplified by the fixed signal amplifier 2051 and output to the overcurrent detector 208 for comparing and detecting the first measurement signal, if the current of the first measurement signal exceeds When a predetermined value can be programmed or the maximum safe current value of the human body is output, the output is over. The current detection signal A 2081, to the output overcurrent safety switch 2042 in the programmable output output 204 and the input overcurrent safety switch 2052 in the programmable input 205, and the programmable output distributor 204 and the programmable input device 205 are turned off, so that the second waveform signal is not injected into the subject, so as to prevent the subject from being damaged by excessive current, and the overcurrent detection signal 2081 is also input into the micro processing. The device 201 sends an overcurrent detection message via the microprocessor 201 to display an overcurrent condition on the LED digital display 2012. To prevent excessive current from flowing through the subject 3 to ensure the safety of the subject, because the current that the human body can tolerate has a safe maximum; if the current of the first measuring signal does not exceed the programmable setting When the predetermined value or the maximum safe current value of the human body is not cut off, the output overcurrent safety switch 2042 in the programmable distribution output unit 204 or/and the input overcurrent safety switch 2052 in the programmable input device 205 is not cut off, The measurement check continues.

The first measurement signal 2051 is input to a programmable signal amplifier 206, and the first measurement signal 2051 is amplified to output a second measurement signal 2061. The second measurement signal 2061 is input to a third programmable analog switch 2073. After filtering the noise, the second low-pass filter device 207 inputs a fourth programmable analog switch 2074, generates a third measurement signal 2071, and then inputs it to an analog-to-digital converter 209, and then outputs a second digital data. 2091 (the impedance value of the subject's skin for digitizing the injection signal) to the microprocessor 201, the microprocessor 201 data processing is based on the second digital data without load (ie, the second waveform signal 2031 can be directly short-circuited and then electrically connected to the output of the programmable input device 205 by the selection switch S of the programmable output outputter 204 to become the first measurement signal 2051, and then processed by signal processing and analog digital The second digital data 2091 generated by the conversion of the signal converter 209, that is, the second digital data generated by the circuit loop of the human body of the subject) is divided by the second number of the load The percentage value (electrical spectrum value) of the bit data (the second digital data generated by the circuit of the subject through the circuit of the subject) is output to the LED digital display 2012 for displaying one of the high, medium and low frequency signals. The value of the impedance change of the body skin to the signal after the subject (is a percentage value, also known as an electrical spectrum value).

According to the present invention, the second low-pass filter device 207 includes a third programmable analog switch 2073 connected to the programmable signal amplifier 206 for inputting the second measurement signal 2061 to generate a first to one The nth programmable signal 20731, 20732, 20733; n second low pass filters 20721, 20722, 20723, connected to the third programmable analog switch 2073, for receiving the nth programmable signal 20731, 20732 20733, generating an nth band signal 207211, 207221, 207231; and a fourth programmable analog switch 2074, connected to the n filters 20721, 20722, 20723, for receiving the nth band signal 207211, 207221, 207231, the third measurement signal 2071 is output. In a preferred embodiment of the present invention, the nth second low pass filter 20721, 20722, 20723 is a second low frequency filter 20721, a second intermediate frequency filter 20722, and a second high frequency filter, respectively. 20723, and the operation of the corresponding frequency band and the first low frequency filter 20221, the first intermediate frequency filter 20222, and the first high frequency filter 20223 of the first low pass filter device 2022 are in the program selection operation. Corresponding band relationship.

Please refer to FIG. 3, which is a schematic diagram of the injection signal 2041 of the present invention (as the injection signal for checking the physical health condition of the subject or the therapeutic radio wave for treating the disease or pain by the user), wherein the two phases are The pause time t2 between adjacent waveforms, and the time occupied by the waveform It is t1, where the horizontal axis is time and the vertical axis is amplitude (voltage value).

Please refer to FIG. 4, which is the waveform of the main wave and its carrier wave of the injection signal 2041 of the present invention (the injection signal for checking the physical health condition of the subject or the therapeutic radio wave for treating the disease or pain by the user). In one diagram, the carrier frequency and waveform can be programmed (the general carrier frequency is not less than 10 times the main wave frequency), wherein the waveforms of the two adjacent main waves are pause time t4, and the time occupied by the main waveform is T3, wherein the horizontal axis is time and the vertical axis is amplitude (voltage value).

The advantages of this creation are as follows:

(1) In the case of one of the energy output devices with high, medium and low frequency, the traditional high, medium and low frequency therapeutic device has a carrier-free programmable frequency and waveform function, and the main wave is also unprogrammable. The function of setting the frequency, waveform, power and pause time is set, but different kinds of different treatments or pains must have different treatment radio wave setting conditions in different treatment stages, so the traditional general high, medium and low frequency treatment apparatus will be remarkable. In order to influence the effect of the treatment, in view of the lack of the above-mentioned prior art, the present invention provides an energy output device with high, medium and low frequency, the frequency, waveform, power and pause time of the main wave output by the device, and the frequency of the carrier wave The waveform can be programmed in a safely specified value and output an injection signal (as the injection signal for the subject to check the physical health condition or the treatment wave for the user to treat the disease or pain) The absence of traditional high school and low frequency therapy devices significantly increases the therapeutic effect. .

(2) Part of the device for measuring the impedance of the injected signal to the skin of the present invention--This creation of a wave that injects high, medium and low-cycle energy into the human skin for treatment can be measured by the measuring device of the present invention. To store, process, and output the electrical spectrum value to the display, so that a user can inject the frequency, waveform, power, and pause time of the high, medium, and low frequency injection signals, and The frequency and waveform of the carrier have a reading value of the electrical spectrum value, which is used as a reference for the better output setting value. (The preferred therapeutic effect refers to the electrical spectrum value of the user when the patient is treated with high, medium or low frequency or after treatment. The trend is closer to falling within the range of conventional values, so that the design of the measurement device with the electrical spectrum value makes the high-middle and low-cycle treatment achieve better results.

(3) Measurement of human skin on the measurement of DC resistance is a device that is currently recognized to be able to detect physical health conditions, such as the Japanese Good Guide System and the West German Dr. VoLL System. However, a system that injects high-medium and low-frequency signals into human skin to measure the impedance of the skin to the signal has not yet been detected as a device and application for physical health.

The measurement of the change in DC resistance of human skin is used to detect the health of the body. For example, the Japanese good guide system can only provide the non-immediate physical health status of the subject in a recent period of time (how long is uncertain) The message does not provide immediate information about the subject's related infectious diseases, related organ degradation (disease) and related tumors.

In view of the lack of the above-mentioned prior art, the present invention provides a measurement system for measuring changes in signal impedance of various frequencies and waveforms injected into human skin (such as the meridians, acupoints, etc. of the human body) for detecting physical health, and immediacy. It provides information on the relevant infectious diseases, related organ degeneration (diseases) and related tumors of the subjects, and is a measure system for detecting the health of the body, which is extremely progressive. For example, to check whether a subject is now (immediately) infected with a contagious gastrointestinal type of cold, the author can create a square wave with a frequency of 8.5 Hz as the main wave by means of the authoring system (1), and the pause time is 0 seconds, the carrier frequency is a sine wave of 170 Hz, the power level is 1.0V for the main wave amplitude, and (2) the relevant measurement points are the index finger parts of the left and right hands, and the electrical spectrum values are all above 60 (inflammation), via a large number of The research and statistics of related diseases can be used as a way to determine whether the subject is now (immediately) infected with the infectious gastrointestinal cold.

(4) At present, the medical profession has not found a device that allows physicians to treat patients with medication, surgery, chemotherapy, radiotherapy, etc., and has a simple, rapid, non-invasive measurement system that can provide physicians as a treatment for patients. , the immediacy of its effect and overall impact, in response to the lack of the above-mentioned techniques, the creation provides a measurement system, such as the advantages of this creation (3), a measurement system of the creation, can be used to detect physical health It can provide the reporter's relevant infectious diseases, related organ degeneration (disease) and related tumor information in a timely manner, so as to provide a simple, rapid and non-invasive measurement system for the physician. The immediate effect of the effect and the overall impact, for example, after a physician treats a patient, the electrical spectrum value of the measurement point of the relevant organ of the patient is measured by the measurement system, and whether the electrical spectrum value tends to a normal value range Internal change, according to which the physician can obtain the immediacy information of the effect and overall impact of the patient after treatment, simply, quickly and non-invasively. And as a next treatment drug reference.

(5) Another purpose of the present creation is to inject a signal of high, medium, and low frequency into the human skin to measure the impedance of the signal as a check for the physical condition of the subject. However, human skin has its own correspondingly measurable injection signal for various organ degradation (diseases) and different infectious diseases. The output of the present invention is a high, medium, and low frequency. The frequency, waveform, power, and pause time of the main wave of the injected signal, and the frequency and waveform of the carrier can provide the user within the safety specified value (individual, patient, doctor, researcher, etc.) The program can be adjusted to make the best signal/noise ratio of the measurement signal, so that the detected electrical spectrum value can more accurately provide the relevant organ degeneration (disease) and related infections of the subject. Interpretation of the health status of sexually transmitted diseases.

(6) detecting disk: the energy output device having high, medium and low frequency includes a detecting plate D1, which is a conductive metal piece or a conductive container (isolated from the outside), and is electrically connected to the programmable output output unit 204. The purpose is to detect the substance (such as drugs, etc.) placed on the disc D1 (substance The equivalent circuit of the message can affect the impedance value of the loop), and can be programmed to connect the detection disc to the second waveform signal 2031 to detect whether the information of the substance (such as medicine) placed on the disc D1 affects the measured The electrical spectral value of the person can be known by the present measurement system to provide an assessment of the positive or negative impact of the subject on the relevant substance (the substance on which the test disc is placed).

(7) Safety: A part of the system safety of injecting high-medium and low-frequency signals into human skin to measure the impedance of the skin to the signal--the current law I know the current I=voltage V/impedance Z . Although the high-medium-low-cycle injection into the human body has a low voltage value, the current that is normally injected and flows through the human body is very small, but when the human body forms a resonance with a certain frequency wave, the human skin impedance Z becomes very It is so low that it causes a large current to be injected into the human body and causes damage. The creation is performed by the output overcurrent safety switch 2042 and the input overcurrent safety switch 2052 (shown in FIG. 2), and the first measurement signal 2051 of the human body is amplified by the fixed signal amplifier 20521 and then input into the overcurrent detector. 208 is compared with a predetermined value that can be programmed or a maximum safe current of the human body. If the current value is too large, an overcurrent detection signal 2081 is output to the output overcurrent safety switch 2042 of the programmable output distributor 204, and the The input overcurrent safety switch of the input device 205 can be programmed, and the programmable output output device and the programmable input device are simultaneously turned off 2052, so that the second waveform signal is not injected into the subject 3, so that The subject is prevented from being exposed to excessive current, and the overcurrent detection signal is simultaneously input to the microprocessor 201, and an overcurrent detection message is sent via the microprocessor 201 to display an overcurrent condition on the LED digital display 2012.

Example

According to the present invention, a system for injecting high-medium and low-frequency signals into human skin to measure the impedance of the skin to the signal, wherein the human skin is injected with a signal of high, medium and low frequency to measure The system of the impedance of the skin to the signal is used to assess the physical health of a subject, and a specific embodiment, for example, to check the health of a subject's liver organ:

---- Through the creation of a system that injects high-medium and low-frequency signals into human skin to measure the impedance of the skin to the signal, and for a large number of related organ degeneration (disease) research and statistical results, know that the liver disease is unhealthy. (Unusual condition) The injection signal injected into the human body can be set as the main wave with the frequency of 10.0 Hz as the main wave, the pause time is 0 seconds, and the carrier frequency is 200 Hz sine wave by the (1) of the present creation system. The size of the main wave is 1.0V; (2) The measurement points of the liver organs are the thumb of the left and right feet, and the electrical spectrum values of the relevant measurement points, and any of the electrical spectrum values fall in a severely degraded condition (not normal Condition) (Electrical spectrum values 0 to 20, as shown in Table 1), as an assessment of unhealthy (abnormal conditions) of liver disease.

---- A subject is examined for the health of the liver organ. The injection signal injected into the human body by the authoring system is set as a square wave with a frequency of 10 Hz as the main wave, the pause time is 0 seconds, and the frequency of the carrier is It is a 200Hz sine wave, the power level is 1.0V as the main wave vibration, and the tester holds the test stick F1 by the left or right hand of the subject, and the tester's hand (left or right hand) can hold the detection probe E1 with one hand. Measure the inner part of the thumb of the subject's left and right feet (measured point of the liver organ), obtain the electrical spectrum value of the right foot measurement point 48 (normal condition), and the electrical spectrum value of the measurement point of the left foot 16 ( Serious degeneration), through the system of this creation, the research and statistical results of a large number of related liver organ degeneration (disease) can be used to detect that the liver organ of the subject is in an unhealthy condition (abnormal condition).

---- From the health check of Western medicine, it was also found that the subject had a certain degree of fibrosis of the liver.

200‧‧‧System for injecting high-medium and low-frequency signals into human skin to measure the impedance of the skin to the signal

102‧‧‧External personal computer

1021‧‧‧USB interface

2001‧‧‧Energy output device with high, medium and low frequency

2002‧‧‧Measurement of the impedance of the skin to the injected signal

201‧‧‧Microprocessor

2011‧‧‧Key Combination

2012‧‧‧LED digital display

2013‧‧‧Programmable logic gate

2014‧‧‧ memory

2015‧‧‧ first digital data

202‧‧‧Programmable main wave and carrier frequency waveform generator

2021‧‧‧Digital analog signal converter

20211‧‧‧First analog signal

2022‧‧‧First low pass filter device

2023‧‧‧First waveform signal

2024‧‧‧First programmable analog switch

20241‧‧‧First switch signal

20242‧‧‧Second switch signal

20243‧‧‧ Third switch signal

2025‧‧‧Second programmable analog switch

20221‧‧‧First low frequency filter

202211‧‧‧First filtered signal

20222‧‧‧First IF Filter

202221‧‧‧Second filter signal

20223‧‧‧First high frequency filter

202231‧‧‧third filtered signal

203‧‧‧Programmable Power Amplifier

2031‧‧‧second waveform signal

204‧‧‧Programmable Output Exporter

2041‧‧‧Injection signal

2042‧‧‧Output overcurrent safety switch

205‧‧‧programmable input device

2051‧‧‧First measurement signal

2052‧‧‧Input overcurrent safety switch

20521‧‧‧Fixed Signal Amplifier

206‧‧‧Programmable signal amplifier

2061‧‧‧Second measurement signal

207‧‧‧Second low pass filter device

2071‧‧‧ third measurement signal

20721‧‧‧Second low frequency filter

207211‧‧‧First band signal

20722‧‧‧Second IF filter

207221‧‧‧second frequency band signal

20723‧‧‧Second high frequency filter

207231‧‧‧ Third band signal

2073‧‧‧ third programmable analog switch

20731‧‧‧First programmable measurement signal

20732‧‧‧Second programmable signal

20733‧‧‧ third programmable measuring signal

2074‧‧‧4th programmable analog switch

208‧‧‧Overcurrent detector

209‧‧‧ analog digital converter

2091‧‧‧second digital data

2003‧‧‧First contact conductive member

A1, A2, A3, A4‧‧‧ conductive patch

B1, B2‧‧‧ metal hand grip

C1, C2‧‧‧ metal pedals

D1‧‧‧ test disk

F1‧‧‧Hand grip test stick

2004‧‧‧Second contact conductive member

A1', A2', A3', A4'‧‧‧ conductive patch

B1’, B2’‧‧‧Metal hand grip

C1’, C2’‧‧‧Metal pedals

E1‧‧‧Hand grip detection probe

3‧‧‧ Subjects

31‧‧‧Circuit signal

S‧‧ switch

2081‧‧‧Overcurrent detection signal A

Claims (19)

A system for injecting a high, medium, and low frequency signal into a human skin to measure the impedance of the skin to the signal, comprising: an energy output device having a high, medium, and low frequency for programmatically generating one of high, medium, and low frequency energy injection signals To apply the injection signal to a portion of a subject's body; and a measure of the skin's impedance to the injected signal, to connect to another portion of the subject's body (measurement point), and to be tested The injection signal of the body forms a circuit loop, and outputs a measurement signal through the circuit loop for measuring the impedance change value (electrical spectrum value) of the skin of the subject's body to the injection signal, according to the electricity Whether the spectral value falls within a range of a conventional value for detecting the health of the subject's body or as a preferred set value reference for the injection signal, wherein the energy output device having a high, medium, and low frequency includes: an input device, An input data for generating a frequency, a waveform, a power and a pause time of a main wave having a high, medium, and low frequency, and a frequency and a waveform thereof; a programmable logic gate for programming a hardware logic gate to control a logical combination of the system; a microprocessor coupled to the input device and the programmable logic gate, coupled to the microprocessor via an application program And for processing and processing the input data and outputting the corresponding programmable main wave frequency, waveform, pause time, and one of the first frequency data of the carrier frequency and the waveform; a programmable main wave and carrier frequency waveform generator connected to the microprocessor, having a set of digital analog converters, two programmable analog switches respectively connected to the input and output of a first low pass filter device And the first low pass filter device having n first filters (n is an integer greater than 0, the same below) the set of digital analog converters for converting the first digital data into having the main wave a first analog signal of the frequency, the waveform, and the pause time, and the frequency and waveform of the carrier, and the first low pass filter device filters the resonant noise of the digital analog converter of the first analog signal. And generating, by the selection of the two programmable analog switches, a programmable waveform of the main wave, the waveform, the pause time, and the frequency and waveform of the carrier, and outputting a first waveform signal; An amplifier coupled to the programmable main wave and carrier frequency waveform generator for amplifying the power of the first waveform signal to generate a second waveform signal of an appropriate power; and a programmable An output device connected to the programmable power amplifier, inputting the second waveform signal, and converting the injected signal into a part of the body of the subject by programmably selecting one of the first contact conductive members; And the means for measuring the impedance of the skin to the injected signal comprises: a programmable input transducer, and one of the second contact conductive members can be programmed to be connected in series to the other part of the subject's body (measurement Point, forming a circuit loop with the injection signal, and outputting a first measurement signal through the circuit loop; a programmable signal amplifier inputting the first measurement signal of the programmable input device for the first A measurement signal is amplified to output a second measurement signal; a second low pass filter device coupled to the programmable signal amplifier having two programmable analog switches and n second filters (n is an integer greater than 0), the two programmable analog switches, The n second filters are used to filter the noise of the second measurement signal to generate a third measurement signal; and the analog to digital converter is connected to the second low pass filter. Device for outputting the third measurement signal from the analog signal to a second digital data to the microprocessor for processing the second digital data by using the microprocessor; and an output device for Displaying an output signal processed by the microprocessor, which represents the impedance change value (referred to as an electrical spectrum value) of the body to the injected signal after the subject adds the body to the injection signal, and is used to detect the received signal The physical condition of the tester, the output device is also used to display relevant data input by the input device. A system for injecting one of high, medium, and low frequency signals into human skin to measure the impedance of the skin to the signal, as in claim 1, wherein the human skin is injected with a signal of high, medium, and low frequency to measure the impedance of the skin to the signal. The electrical spectral value is a percentage value that is the value of the impedance of the injected signal that is not passed through the human skin divided by the percentage of the impedance value of the injected signal via the human skin. A system for injecting a signal of a high, medium, and low frequency into a human skin to measure the impedance of the skin to the signal, wherein the first filter of the first low pass filter device has a parallel connection. a low frequency filter, a first intermediate frequency filter and a first high frequency filter, and the n second filters of the second low pass filter device have a second low frequency filter in parallel, a second An intermediate frequency filter and a second high frequency filter, and wherein the first low pass filter The first low frequency filter of the wave device, the first intermediate frequency filter, the second low frequency filter of the first high frequency filter and the second low pass filter device, and the second intermediate frequency filter And the second high frequency filter is operatively corresponding and is programmably selected. A system for injecting one of high, medium, and low frequency signals into human skin to measure the impedance of the skin to the signal, as in claim 1, further comprising a fixed signal amplifier and an overcurrent detector connected to the fixed signal amplifier The programmable input device is configured to amplify the first measurement signal, and the overcurrent detector is connected to the fixed signal amplifier, when the amplified first measurement signal current exceeds a programmable value or When the human body safety specifies the maximum current value, an overcurrent detection signal is output to an output overcurrent safety switch of the programmable output distributor, and an input overcurrent safety switch of the programmable input device is The program distribution output device and the programmable input device are simultaneously turned off, so that the second waveform signal is not injected into the subject, so as to prevent the subject from being damaged by excessive current, and the overcurrent detection signal is also input at the same time. The microprocessor sends an overcurrent detection signal to the LED digital display via the microprocessor to display an overcurrent condition. A system for injecting one of high, medium, and low frequency signals into human skin to measure the impedance of the skin to the signal, as in claim 1, wherein the frequency of the main wave of the injected signal is programmable below 5 MHz. For example, in the system of claim 5, a system for injecting high-medium and low-frequency signals into human skin to measure the impedance of the skin to the signal, wherein the frequency of the main wave is below 100 kHz, the frequency and waveform of the carrier wave can be programmed. A system for injecting a signal of high, medium, and low frequency into human skin to measure the impedance of the skin to the signal, as in claim 1, wherein a part of the body of the subject is a human skin. Skin, acupoints or meridians. A system for injecting one of high, medium, and low frequency signals into human skin to measure the impedance of the skin to the signal, as in claim 1, further comprising a memory coupled to the microprocessor for memorizing the microprocessor The data processed or the data of the system itself. A system for injecting one of high, medium, and low frequency signals into human skin to measure the impedance of the skin to the signal, as in claim 8, wherein the memory is a flash memory (FROM) or static memory ( SRAM). A system for injecting one of high, medium, and low frequency signals into human skin to measure the impedance of the skin to the signal, as in claim 1, wherein the input device is a button combination. A system for injecting one of high, medium, and low frequency signals into human skin to measure the impedance of the skin to the signal, as in claim 1, wherein the output device is an LED digital display. The system of claim 1, wherein the first contact conductive member is a conductive patch, a metal pedal, and a metal hand. Stick or hold the test stick. A system for injecting one of high, medium, and low frequency signals into human skin to measure the impedance of the skin to the signal, as in claim 1, wherein the first contact conductive member further includes a detecting disk electrically connected to the programmable output. And means for electrically transmitting a substance message carried thereon to the programmable output distributor. A system for injecting one of high, medium, and low frequency signals into human skin to measure the impedance of the skin to the signal, as in the first aspect of the patent application, wherein the second contact conductive member is a conductive patch, a metal pedal, and a metal hand grip. Check the probe with a stick or hand. For example, in the first paragraph of the patent application, one of the high, medium and low frequency signals is injected into the human skin to measure the skin. a system for impedance of the signal, wherein the waveform of the main wave of the first waveform signal is programmable to set a sine wave, a square wave, a triangle wave or other waveform, and the carrier is also programmable Waveform. A device for injecting a high, medium, and low frequency signal into a human skin to measure the impedance of the skin to the signal, comprising: a programmable output output device for outputting a high, medium, and low frequency injection signal through a first contact conductive member to a portion of the body of the subject; a programmable input transducer coupled to the second contact conductive member of the programmable selection and coupled to another portion of the subject's body to form an injection signal a circuit circuit, and outputting a first measurement signal through the circuit circuit; a programmable signal amplifier receiving the first measurement signal of the programmable input device for amplifying the first measurement signal and outputting a first a second low-pass filter device connected to the programmable signal amplifier having two programmable analog switches and n second filters (n is an integer greater than 0), the two a program analog switch for programmatically selecting a desired frequency band, wherein the n second filters are configured to filter the noise of the second measurement signal to generate a third measurement signal; The converter is connected to the second low-pass filter device for converting the third measurement signal into analog data by a analog signal and inputting it to a microprocessor for processing the digital data by using the microprocessor; And an output device for displaying an output signal processed by the microprocessor, which represents an impedance change value of the body to the injected signal after the body of the subject adds the injection signal to the high, low, and low frequency injection body. (Electrical spectrum value), used to detect the health of the subject's body. A device for injecting one of high, medium, and low frequency signals into human skin to measure the impedance of the skin to the signal, as in claim 16, wherein the electrical spectral value is a percentage value. A device for injecting a high-medium-low-frequency signal into a human skin to measure the impedance of the skin to the signal, as in claim 16, wherein the second low-pass filter device comprises: a third programmable analog switch, connected The programmable signal amplifier is configured to receive the second measurement signal to generate an nth programmable signal; and the n second filters have a filter frequency band that can be programmatically corresponding to the high school of the programmable output output device An output frequency of the low-frequency injection signal is coupled to the third programmable analog switch for receiving the n-th programmable signal to generate an n-th frequency band signal of a desired frequency band, wherein the n second filters include one a second low frequency filter, a second intermediate frequency filter, and a second high frequency filter; and a fourth programmable analog switch connected to the n second filters for programmatically receiving the first The n-band signal is output to generate the third metric signal. A device for injecting one of high, medium, and low frequency signals into human skin to measure the impedance of the skin to the signal, wherein the frequency of the main wave of the high, medium, and low frequency injection signal is below 5 MHz.