Equipment and method for quickly identifying age of implement by using energy information technology

Abstract

The invention relates to a device and a method using energy information technology, which can quickly identify the age of an implement (cultural relic). According to the device and the method, subtle energy emitted from an object (such as a cultural relic and a handicraft) is sensed, energy information contained in the subtle energy is converted into an electrical signal, and meaningful information (such as the age of the cultural relic and the handicraft) is extracted from the electrical signal. The device comprises a magnetic field signal detector, a signal input circuit, a sensitivity adjusting circuit, a crystal timing circuit, an audio adjusting circuit, an audio generating circuit, a signal feedback circuit, a computing system, a loudspeaker system and a main shell. The circuits are interconnected to each other and are mounted within the main housing.

Description

[0001] This application claims priority to U.S. Provisional Patent Application No. 63 / 401,270, filed on August 26, 2022. This application was actually filed on August 28, 2023, because August 26, 2023 was during the weekend. Technical Field

[0002] The present invention relates to the fields of subtle energy and Radionics, and more particularly to a holographic energy radio electronics device, which is used as a device for dating objects. The present invention can transmit weak energy. The present invention is a system and method that can analyze the energy information of artworks and infer the age of artworks or cultural relics through resonance. Background Art

[0003] From the perspective of quantum mechanics, magnetic field waves and energy waves are essentially energy fields. Collecting and analyzing quantized energy fields from different substances can have various practical applications in many fields. The wave-particle duality of particles described by modern quantum physics means that each particle has its own corresponding matter wave, and waves have resonance characteristics. The resonance of waves is the macroscopic manifestation of quantum resonance.

[0004] Radionics is concerned with the fields of controlling fields and "subtle energy". In this specification, "subtle energy" refers to an energy form that cannot currently be objectively (practically) measured. Radionics was founded by an American physician, Dr. Albert Abrams (1863 - 1924). In his theory of "morphogenetic fields", the British biologist and philosopher Rupert Sheldrake proposed that "morphogenetic fields" contain information about the form and structure of every bovine animal, including inanimate matter. These fields have a holographic structure, which means that the relevant information should theoretically be spread throughout the universe and should therefore be able to be summoned and observed.

[0005] Since ancient times, traditional identification methods have been used to identify antiques and artworks. Traditional identification methods mainly rely on eyesight (optical identification), which mainly involves direct observation by the appraiser's eyes and is based on the appraiser's knowledge, experience, thinking, reasoning, cultural literacy, and historical knowledge to draw conclusions about the identification of artworks or cultural relics. However, this experience-based method has many problems. It is not only easy to mistake fakes for genuine ones but may also mistake a genuine one for a fake, so that some precious cultural sites cannot be protected in a timely manner. Modern forensic identification emphasizes scientific methods. Through modern scientific technologies and scientific forensic identification methods, and in combination with traditional forensic identification methods, the production date of cultural relics or artworks can be determined.

[0006] In recent decades, testing instruments have become important aids in the dating of cultural relics (artifacts). Certain new technologies have played important roles in the identification of ancient ceramics, bronze wares, and other cultural relics (artifacts). However, modern identification technologies such as thermoluminescence (TL) dating and carbon-14 dating require sampling from cultural relics (artifacts), which will damage the integrity of the cultural relics, so that they are subject to quite significant limitations in practical applications. Therefore, some researchers and collectors of ancient cultural relics look forward to better identification technologies, preferably ones that can perform non-destructive, fast, and accurate dating of cultural relics or artifacts.

[0007] The prior arts related to and referred to in the present invention include: Japanese Patent No. 1996-275928 (disclosing a low-frequency electromagnetic wave generator), Japanese Patent No. 2000-055881 (disclosing a weak magnetic field measurement analyzer), and a paper published in Neuro Quantology in April 2022, titled "The Midbrain: Central Gray Matter is the Resonance Center of the Radionics System". Summary of the Invention

[0008] In view of the disadvantages of the prior arts, the present invention provides a subtle energy sensing device, aiming to obtain holographic energy information of cultural relics or artifacts through this device to date the cultural relics or artifacts. The present invention can effectively convert the subtle energy information into electrical signals, and the computer can process the electrical signals using its unique link mode.

[0009] The object of the present invention is to provide a non-destructive testing method that can be used for cultural relics. The present invention can overcome the disadvantages of the currently widely used "thermoluminescence (TL) dating method" and various "radiocarbon dating methods". The present invention can test ceramics and can detect and identify articles made of various materials, such as: bronze wares, gold wares, silver wares, paintings and calligraphy works, jadeite, jewelry and jade wares, furniture, and other cultural relics (artifacts). The accuracy of the present invention in dating cultural relics and artworks can reach "years". The present invention can improve the accuracy and timeliness of identifying ceramics, jade wares, bronze wares, calligraphy, and paintings, and can reach an accuracy of "years".

[0010] The present invention adopts the holographic age energy information resonance technology, which can directly collect the dynamic signals of the holographic energy wave from the artifacts to be identified, and by sensing and capturing the impedance changes of the operator's skin, the signals are converted into sounds (resonant sounds and non-resonant sounds), and then the artifacts are evaluated and analyzed according to the converted sound differences. The impedance change is considered to use the original sensory and signal systems of the brain as detectors.

[0011] The present invention is an identification method that infers the age of cultural relics through the holographic energy information of objects, which not only has high accuracy, but also has the characteristics of comprehensiveness, integrity, simplicity and rapidity. If necessary, the present invention can also accurately test various chemical components of the objects to be identified.

[0012] To achieve the above object, the method of the present invention is described as follows: The holographic subtle energy information sensing device of the holographic age identification instrument includes: a detection rod, a detection board, an operation control board, a computer, and a power supply. Description of the Drawings

[0013] Figure 1 is a schematic diagram showing a device of the present invention.

[0014] Figure 2 is a block diagram showing the electronic components and circuits of the device of the present invention.

[0015] Figure 3 is Figure 2 a continuation of

[0016] Figure 4 is a schematic diagram showing a measurement operator using the present invention.

[0017] Figure 5 is a block diagram showing the electronic components and circuits of the device of another embodiment of the present invention.

[0018] Figure 6 is a block diagram showing the electronic components and circuits of the device of still another embodiment of the present invention.

[0019] Figure 7 is a schematic diagram showing the process of measuring a handicraft.

[0020] Figure 8 is a schematic diagram showing the process of measuring another handicraft.

[0021] Figure 9 is a schematic diagram showing the process of measuring yet another handicraft.

[0022] Figure 10 is a schematic diagram showing the process of measuring still another handicraft.

[0023] Figure 11 is a schematic diagram that shows the process of measuring one handicraft.

[0024] Figure 12 is a schematic diagram that shows the process of measuring another handicraft.

[0025] Figure 13 is a schematic diagram that shows the process of measuring yet another handicraft.

[0026] Figure 14 is a schematic diagram that shows the process of measuring still another handicraft.

[0027] Figure 15 is a schematic diagram that shows the process of measuring yet still another handicraft.

[0028] Figure 16 is a schematic diagram that shows the process of measuring still yet another handicraft. Detailed implementation manners

[0029] First, it should be specifically noted that the diagrams used in this specification are only for illustrating certain embodiments of the present invention, and the scope of the present invention is not limited by these diagrams.

[0030] The present invention is a device and method that can quickly identify the age of an item using energy information technology. Refer to Figures 1 to 3, the device of the present invention comprises: a magnetic field signal detector 10, a signal input circuit 20, a sensitivity adjustment circuit 30, an integrated timing circuit 40, an audio adjustment circuit 50, an audio generation circuit 60, a signal feedback circuit 70, a computing system 80, a speaker system 90, and a main housing 100. The magnetic field signal detector 10 is used to detect the magnetic field waves emitted by a handicraft, wherein the magnetic field waves contain the energy information on the handicraft and can be converted into electrical signals, so that the energy information can be converted into a user-readable digital output. More preferably, the magnetic field signal detector is a pair of aluminum electrodes. The pair of aluminum electrodes can be, but is not limited to, a probe (i.e., a detection board) and a detection rod (for detecting a magnetic field wave). After the magnetic field signal detector 10 detects the magnetic field waves, the signal input circuit 20 is used to receive and preliminarily process the magnetic field waves. The sensitivity adjustment circuit 30 is used to adjust the sensitivity of the present invention to receive magnetic field waves. The integrated timing circuit 40 is used to adjust and delay the signal processing of the magnetic field waves, whereby the different circuits of the present invention can optimize the signal processing of the magnetic field waves. The audio generation circuit 60 generates sound signals, and the speaker system 90 outputs the sound signals. The audio adjustment circuit 50 is used to control the type of sound. The signal feedback circuit 70 generates a direct feedback for the magnetic field waves detected by the magnetic field signal detector 10. The audio generation circuit 60 is used to collect and process the inputs of the different circuits of the present invention and convert the inputs into audio output signals, and then the speaker system 90 outputs the audio output signals as sounds audible to humans. The computing system 80 is used to receive, store, and analyze the information of the present invention and is used to receive, process, and execute the instructions of the present invention. The computing system 80 can be used to store program codes or serve as a user interface. The computing system 80 can be, but is not limited to, an integrated chipset, an integrated microprocessor, or a personal computing device (such as a smart phone, a desktop computer, a laptop computer, or a tablet computer, etc.), wherein these devices can communicate with the rest of the present invention or with other computing devices. The main housing 100 encloses all the electronic components of the present invention and serves as the basis for the other components of the present invention.

[0031] The overall configuration of the above components of the present invention enables the present invention to detect a magnetic field wave from a handicraft, convert the energy information in the magnetic field wave into an electrical signal, and extract meaningful information from the electrical signal. The magnetic field signal detector 10 is electronically connected to the signal input circuit 20 and the signal feedback circuit 70. The signal input circuit 20 can receive the magnetic field wave and initiate the signal processing process. The signal feedback circuit 70 transmits a direct feedback of the magnetic field wave to other circuits of the present invention. The signal input circuit 20 is electronically connected to the sensitivity adjustment circuit 30 and the integrated timing circuit 40. The integrated timing circuit 40 performs signal processing of relevant partial magnetic field waves. The sensitivity adjustment circuit 30 adjusts the signal input circuit 20 to the optimal sensitivity. The integrated timing circuit 40 is electronically connected to the computing system 80 and the audio adjustment circuit 50. The computing system 80 receives the result of the magnetic field wave signal processing. The audio adjustment circuit 50 inputs the result of the magnetic field wave signal processing into its function. The sensitivity adjustment circuit 30 and the audio adjustment circuit 50 are electronically connected to the computing system 80, so that the computing system 80 can analyze the information from the sensitivity adjustment circuit 30 and the audio adjustment circuit 50. The signal feedback circuit 70 and the audio adjustment circuit 50 are electronically connected to the audio generation circuit 60, so that the direct feedback of the magnetic field wave from the signal feedback circuit 70 and the result of the magnetic field wave processing from the audio adjustment circuit 50 can be used as inputs to generate an audio output signal. The audio generation circuit 60 is electronically connected to the speaker system 90, so that the speaker system 90 can convert the audio output signal into an analog signal and output the analog signal as sound audible to humans. The magnetic field signal detector 10 is located outside the main housing 100. The signal input circuit 20, the sensitivity adjustment circuit 30, the integrated timing circuit 40, the audio adjustment circuit 50, the audio generation circuit 60, and the signal feedback circuit 70 are installed inside the main housing 100. The speaker system 90 is integrated with the main housing 100. More preferably: the computing system 80 is installed outside the main housing 100. However, the computing system 80 can also be installed inside the main housing 100 and integrated with the main housing 100.

[0032] The signal input circuit 20 may include: an input controller 21 and an input amplifier 22. The input controller 21 is used to adjust how the signal input circuit 20 receives the magnetic field wave detected by the magnetic field signal detector 10. The input amplifier 22 is used to strengthen the initial signal processing result generated by the signal input circuit 20. The input amplifier 22 is electronically connected to a voltage amplifier 41 of the integrated timing circuit 40 and the sensitivity adjustment circuit 30. A sensitivity amplifier 33 of the sensitivity adjustment circuit 30 is electronically connected to the input controller 21.

[0033] The sensitivity adjustment circuit 30 includes: a calibration circuit 31, a sensitivity controller 32, and a sensitivity amplifier 33. When sensing the magnetic field wave, the sensitivity controller 32 is used to provide a user input for the sensitivity of the present invention. The calibration circuit 31 converts the user input into a digital instruction. Before transmitting the digital instruction back to the signal input circuit 20, the sensitivity amplifier 33 strengthens the digital instruction. The sensitivity controller 32 is electronically connected to the calibration circuit 31. The sensitivity amplifier 33 is electronically connected to the input controller 21 of the signal input circuit 20.

[0034] The integrated timing circuit 40 includes: a voltage amplifier 41 and a timing voltage comparator 42. The voltage amplifier 41 is used to strengthen the initial signal processing result generated by the signal input circuit 20. The timing voltage comparator 42 is used to process the voltage analysis of the signal processing result by the integrated timing circuit 40. The input amplifier 22 of the signal input circuit 20 and the audio adjustment circuit 50 are electronically connected to the voltage amplifier 41. The timing voltage comparator 42 is electronically connected to the computing system 80 and the audio adjustment circuit 50.

[0035] The audio adjustment circuit 50 may include: an audio voltage comparator 51, an audio controller 52, and an audio amplifier 53. The audio controller 52 is used to provide a user input for the type of audio output by the present invention. The audio amplifier 53 is used to strengthen the digital instruction converted from the user input. The audio voltage comparator 51 is used to process the voltage analysis of the signal result by the audio adjustment circuit 50. The audio controller 52 is electronically connected to the audio amplifier 53. The audio voltage comparator 51 is electronically connected to a voltage - frequency converter 61 and the computing system 80.

[0036] The audio generating circuit 60 includes: a voltage-frequency converter 61, a tone adjustment circuit 62, a tone controller 63, a volume adjustment circuit 64, and a volume controller 65. The tone controller 63 provides a user input for how to adjust the tone of the audio output signal. The tone adjustment circuit 6 is used to convert the user input into a digital command, whereby the present invention adjusts the tone of the audio output signal according to this command. The volume controller 65 provides a user input for how to adjust the volume of the audio output signal. The volume adjustment circuit 64 is used to convert the user input into a digital command, whereby the present invention adjusts the volume of the audio output signal according to this command. The voltage-frequency converter 61 is an electronic component that can convert the audio output signal (i.e., digital information) into an analog signal. The audio adjustment circuit 50, the audio voltage comparator 51, the signal feedback circuit 70, the tone adjustment circuit 62, and the volume adjustment circuit 64 are electronically connected to the voltage-frequency converter 61. The voltage-frequency converter 61 is electronically connected to the speaker system 90. The tone controller 63 is electronically connected to the tone adjustment circuit 62. The volume controller 65 is electronically connected to the volume adjustment circuit 64.

[0037] The present invention further includes: a user display 110 that allows the present invention to visually output information and analysis from the computing system 80. The user display 110 is located outside the main housing 100. The user display 110 is electronically connected to the computing system 80.

[0038] Supplementary description

[0039] Please refer to Figure 6 . The present invention is a measuring device that includes: a main body, a sensing voltage generating circuit (SENS), a circuit for detecting resistance change, a sound source circuit, and a pair of aluminum electrodes (a probe and a detection rod) (such as Figure 6 the rod-shaped structure on the left). The pair of aluminum electrodes is connected to the main body and is used to detect skin resistance. Its main function is: by fixing the output resistance of the sensing voltage generating circuit and the input resistance of the amplifier (AMP), via the connection line of the probe, a negative voltage output is generated from the sensing voltage generating circuit to the detection rod. The change in skin resistance between the probe and the detection rod can be known through the change in sound (i.e., the change in sound interval).

[0040] Regarding how the present invention operates, the working principle of the present invention is to adopt the energy information resonance technology, which directly collects holographic energy fluctuations (subtle energy) from artifacts and uses a wireless electronics analysis device. Through a special correlation mode, the present invention can effectively convert the information carried by the subtle energy into electrical signals, and then use a computer to process the electrical signals. During the evaluation process, the impedance change of the operator's skin is detected and captured and converted into sound (resonant sound or non-resonant sound). According to the different converted sounds, the artifacts are evaluated and analyzed. The original sensing function and signaling function of the brain are considered to be able to be used as sensors to determine the change in skin resistance. According to the degree of resonance of the resonant sound, the chronological order of cultural relics (artifacts, handicrafts) can be judged.

[0041] The resonance energy fluctuation detection device of the present invention uses the weak energy change of handicrafts (historic sites) to capture the change in bio-impedance. The content measured is the overall result of the human and the device. The measuring device captures the change in the operator's skin impedance relative to the measured artifact and converts the measurement result into sound. Perhaps, the change in impedance is used as a sensor by the original sensory and signaling system to judge whether the environmental factors are suitable for maintaining the life of the operator's brain.

[0042] In the past, the wave energy resonance detection device was called a bio-weak energy measurement device. Considering the measurement principle, the measurement device of the present invention is called a subtle energy resonance detection device. The detection device of the present invention is mainly used to evaluate and authenticate the production years of artworks, handicrafts, and cultural relics.

[0043] During the development process of the present invention, the wave energy resonance measurement device was developed on the basis of the "quantum resonance detection device" by changing the oscillating electronic coil and setting the detection program system for handicrafts (cultural relics). The detection target can be not only organisms but also natural substances. The evaluation of artworks, handicrafts (cultural relics) can be not only the overall holographic energy information analysis but also the local chronological information analysis and identification.

[0044] In order to make the present invention a measurement device, a wave energy resonance measurement device was developed. The measurement device of the present invention includes: a sensing voltage generating circuit (SENS), a part of which detects the change in resistance; a main body, which includes a sound source circuit; and a pair of aluminum electrodes (a probe and a detection rod), which are connected to the main body and are used to detect the skin resistance. Its main function is: to let the negative voltage output by the sensing voltage generating circuit flow to the detection rod through the connection line of the probe; and by fixing the sensing voltage, the output resistance of the generating circuit and the input resistance of the amplifier (AMP) are generated. The change in the skin resistance between the probe and the detection rod can be known through the change in sound (that is, the change in the sound interval).

[0045] Regarding the measurement method, the wave energy resonance measurement device of the present invention includes: a measurement device; a computer capable of managing the measurement device; and a printer. After placing the probe at the selected handicraft test position and displaying the measurement item (dating test code D883), according to the generated resonant or non-resonant sound, the surveyor first uses the probe to evaluate whether it is before Christ (BC) or after Christ (AC). In the case of resonance, the date is determined to be after BC; in the case of non-resonance, the date is determined to be BC.

[0046] The present invention uses a series of dating detection counting rules, which include:

[0047] 1. First, click on the code of the item to be detected; after the data has been reset, the count will be displayed at a position in the counting window.

[0048] 2. Once a number 1 or greater is entered in the unit position of the counting window, the resonant and non-resonant sounds will be immediately retained.

[0049] 3. When the resonant or non-resonant sound remains unchanged, the tester can continue to increase the value to values such as ten, hundred, thousand, etc.

[0050] 4. When a new value is added, the resonant and non-resonant sounds will immediately reverse, and the counting stops. The value displayed at this time is the detection result.

[0051] Via the wave energy resonance measurement device, the wave information of the weak matter-energy (subtle energies) of artworks, handicrafts, or cultural relics can be captured and analyzed. For the energy information of such a weak magnetic field, Fourier analysis is first used, and then the subtle energy information of various types of handicrafts is edited into a four-digit code starting with an English letter. When detecting, the code will be called out. The detection code can be expanded when needed. By measuring the resonance range between the sample and the code, the present invention can make relevant judgments.

[0052] The resonant and non-resonant signals are output in the form of sound via the wave energy resonance measurement device. When the subtle energy is in a disordered state, a non-resonant sound with an echo will be sent out. When the subtle energy is not in a chaotic state, a resonant sound without an echo will be sent out. The age processed by the instrument can be judged according to whether there is a response.

[0053] When using the present invention to measure related items, the required evaluation code is selected according to the classification of different materials. For example: the material code for ceramics is D126, for jade articles is D153, for metals is E182, for paintings and calligraphy is F068, etc. These evaluation codes will be used to analyze, compare, and evaluate the age of cultural relics.

[0054] Regarding the code creation of the present invention, the weak electromagnetic wave energy of the object to be measured perceived by the person conducting the measurement is picked up and converted into an identified symbol (letters and / or numbers); during the measurement, it will be used as an identification number or code.

[0055] More specifically, the creation of the code of the present invention includes the following: the object (cultural relic) is placed on the detection board; the login needs to include the name of the measurement (the object to be measured) and a clear description of the object; the first position starts with 26 English letters; detection and evaluation are carried out separately to find the clearest resonance sound to determine the first position of the detection code; the Arabic numerals from 0 to 9 are detected and judged; the clearest resonance sound is selected and the number at the second position of the detection code is determined, and so on; finally, a four-digit code for the evaluation plan is generated.

[0056] During the identification and detection process, the four-digit energy magnetic field information code is input into the age determination instrument, and the calculator is used to compare the magnetic field fluctuation information sent by the probe to determine its resonance degree.

[0057] Regarding being proficient in the technical aspects of the present invention, since the sensors used in the bioresonator are usually unconscious perceptions connected to consciousness, a period of training is required to develop the awareness and sense of biological information.

[0058] In the measurement practice of the present invention, the name of the measurement item is "Yueyao Longba Chicken Head Pot (Pot King), 97 cm high, and the conclusion is 79 BC, corresponding to the Western Han Dynasty in China (please refer to Figure 7 ). The name of the measurement item is "Yueyao Mise CihuahuaShileng, handled pot", 20 cm high, and the conclusion is 959 AD, corresponding to the late Five Dynasties and Ten Kingdoms period in China (please refer to Figure 8 ).

[0059] The actual operation process of the present invention is as follows:

[0060] 1. In the test preparation stage, place the test standard sample on the probe board, or use the probe rod to place the standard sample on the test item; after placing the standard sample, remove the contact between the standard sample and other objects and the human body; do not move the standard sample during the test.

[0061] 2. In the equipment preparation stage, turn on the power supply of the main computer and monitor; turn on the power switch of the detector; input the test program; input the code (classification code of different substances) to access the required code name.

[0062] 3. Activate the detection of the items to be inspected.

[0063] 4. Regarding the selection of test points, there should be at least three test points for each standard sample; determine three test points for the main body of each test item; for the main body of the artifact with signatures, inlays, carvings, inscriptions, seals, or other attachments, determine one test point at the location with the characteristics of the standard sample.

[0064] 5. During the testing process, establish test points according to the test report and perform tests year by year. During the detection process, determine the resonance between the standard sample and the code, and the signal is output in the form of sound. When testing the standard sample, perform the test in the order of from outside to inside first. Secondly, test the components with the characteristics of the standard sample in the order of from top to bottom, where the components are attached to the main body of the standard sample.

[0065] 6. To determine the end point of the test, when testing the standard sample, a single tone is the resonant tone and a double tone is the non-resonant tone. When the present invention gives feedback information that changes from a double tone to a single tone during the testing process, the test of the standard sample ends. The production year of the test item is displayed in the test data of the present invention.

[0066] The present invention will conduct analysis and judgment to issue an evaluation report (i.e., Table 1).

[0067] Table 1 Evaluation and Analysis Report on the Energy Information of Cultural Relics (Works of Art)

[0068]

[0069] The description of the evaluation report of the present invention is as follows:

[0070] 1. Through the use of instrument tests, the present invention can display the manufacturing process and manufacturing year of the item to be tested, that is, the present invention can explain the manufacturing process and manufacturing time of the test item, and thus the present invention can accurately judge new or old items.

[0071] 2. After the item to be tested has been tested, if there are main detection data and the main body of the main body, then there is an item characteristic. If the test data is in line, then the manufacturing year of the test item can be determined.

[0072] 3. After the item to be tested has been tested, if the detection data of the main body does not match the test data of the special part attached to the main body of the test item, then artifacts manufactured in different years are mixed in, or the test is affected by other minor external forces. Then, information on the manufacturing years of different test parts of the test artifact needs to be provided.

[0073] Regarding the test verification and statistical analysis of the present invention, the present invention uses a double-blind method and an artifact dating tester to test 30 samples of different materials and their ages to ensure accuracy. The test results are compared with those obtained by qualified professional appraisers, and then the test error rate and age error rate are calculated.

[0074] The calculation of the test error rate uses formula (1):

[0075]

[0076] Where E r is the error rate, E a is the absolute value of the error, and T is the total quantity.

[0077] Regarding the repeatability (reproducibility) of the test of the present invention, the present invention selects three samples and uses the artifact dating detector to test 10 times. The measured values are read and calculated using formula (2):

[0078]

[0079] Where C v is the reproducibility, x i is the first measured value, and n is the number of consecutive measurements.

[0080] As described above, in an embodiment of the present invention, the present invention uses a handicraft age evaluation analyzer to measure the age and date of the artifact, and at the same time, the material complex of the handicraft can also be detected using this analyzer. The evaluation analysis method of the present invention not only has high accuracy, but also has the characteristics of being extensive, complete, simple, and fast.

[0081] An example of a test is the "Blue and White Pine Pattern Plate Made in the Xuande Period of the Ming Dynasty (DaMing Xuande NianzhikuanQinghua Neisong Zhumeiwai Shi Nv pattern plate)", with a diameter of 19.5 cm and a height of 4.5 cm, as Figure 9 and Figure 10 shown. The test results: The manufacturing age of the pottery embryo is 1427 ± 30 AD, and the manufacturing age of the pottery glaze is 1429 ± 30 AD.

[0082] As Figure 11 shown, another example of a test is the "Ming Chenghua Doucai Chicken Cup (Mingchenghuakuan DoucaiChicken Cup)", which is a pottery product, with a diameter of 81 mm and a height of 43 mm, and is estimated to be manufactured in 1468 AD.

[0083] As Figure 12As shown, another example for testing is the "Ruyao Tianqing You Changjing Xuan pattern bottle", which is a pottery product with a diameter of 170 mm and a height of 110 mm, estimated to be manufactured in 962 AD.

[0084] As Figure 13 shown, another example for testing is the "Yuxiao pendant", which is a jade product with a diameter of 39 mm and a thickness of 16 mm, estimated to be manufactured in 1900 BC.

[0085] As Figure 14 shown, yet another example for testing is the "Green Three Kong jadeplate", which is a jade product with a diameter of 39 mm, a width of 49 mm, and a thickness of 16 mm, estimated to be manufactured in 1300 BC.

[0086] As Figure 15 shown, yet another example for testing is the "Ruyao Lanyou Xuanwen Duck Mouth bottle", which is a pottery product with a diameter of 190 mm and a height of 100 mm, estimated to be manufactured in 930 AD.

[0087] As Figure 16 shown, yet another example for testing is the "Green Trapezoid Three Kong Jade", which is a jade product with a diameter of 75 mm, a width of 56 mm, and a thickness of 4 mm, estimated to be manufactured in 1200 BC.

[0088] In practice, the accuracy rate of the test results exceeds 95%, but there are still some drawbacks, including:

[0089] 1. The operation of the detecting personnel is not standardized.

[0090] 2. Due to the sensitivity of the detecting equipment to signals, the radiation of magnetic fields, electric fields, and other peripheral environments may interfere with the age information captured by the artifacts or measuring equipment to be measured.

[0091] 3. The artifacts themselves to be measured are easily affected to a certain extent, such as excessive cleaning, grinding, radiation, or moisture, etc.

[0092] Based on the above objective factors, the age assessment results of cultural relics (crafts) may have an error of plus or minus 20 years, and this error can be used as a relatively objective reference for identification.

[0093] The present invention has been described above by way of preferred embodiments. However, it should be understood that various modifications and changes made in accordance with the spirit, features, and scope of the patent application of the present invention do not depart from the scope of the present invention.

Claims

1. An apparatus for rapidly identifying the age of an artifact using energy information technology, comprising: A magnetic field signal detector; A signal input circuit; A sensitivity adjustment circuit; An integrated timing circuit; An audio adjustment circuit; An audio generation circuit; A signal feedback circuit; A computing system; A speaker system; and A main housing, wherein The magnetic field signal detector is electronically connected to the signal input circuit and the signal feedback circuit; The signal input circuit is electronically connected to the sensitivity adjustment circuit and the integrated timing circuit; The integrated timing circuit is electronically connected to the computing system and the audio adjustment circuit; The sensitivity adjustment circuit and the audio adjustment circuit are electronically connected to the computing system; The signal feedback circuit and the audio adjustment circuit are electronically connected to the audio generation circuit; The audio generation circuit is electronically connected to the speaker system; The magnetic field signal detector is located outside the main housing; The signal input circuit, the sensitivity adjustment circuit, the integrated timing circuit, the audio adjustment circuit, the audio generation circuit, and the signal feedback circuit are installed within the main housing; The speaker system is incorporated into the main housing.

2. The device according to claim 1, wherein The magnetic field signal detector is a pair of aluminum electrodes.

3. The device according to claim 2, wherein, The aluminum electrodes are a probe and a detection rod.

4. The apparatus according to claim 1, wherein The signal input circuit includes: An input controller, and an input amplifier; The input amplifier is electronically connected to a voltage amplifier of the integrated timing circuit and the sensitivity adjustment circuit; A sensitivity amplifier of the sensitivity adjustment circuit is electronically connected to the input controller.

5. The apparatus according to claim 1, wherein The sensitivity adjustment circuit includes: A calibration circuit, a sensitivity controller, and a sensitivity amplifier; The sensitivity controller is electronically connected to the calibration circuit; The sensitivity amplifier is electronically connected to an input controller of the signal input circuit.

6. The apparatus according to claim 1, wherein The integrated timing circuit includes: A voltage amplifier, and a timing voltage comparator; An input amplifier of the signal input circuit and the audio adjustment circuit are electronically connected to the voltage amplifier; The timing voltage comparator is electronically connected to the computing system and the audio adjustment circuit.

7. The apparatus according to claim 1, wherein The audio adjustment circuit includes: An audio voltage comparator, an audio controller, and an audio amplifier; The audio controller is electronically connected to the audio amplifier; The audio voltage comparator is electronically connected to a voltage - frequency converter and the computing system.

8. The apparatus according to claim 1, wherein The audio generation circuit includes: A voltage - frequency converter, an audio adjustment circuit, a tone controller, a volume adjustment circuit, and a volume controller; An audio voltage comparator of the audio adjustment circuit, the signal feedback circuit, the audio adjustment circuit, and the volume adjustment circuit are electronically connected to the voltage - frequency converter; The voltage - frequency converter is electronically connected to the speaker system; The tone controller is electronically connected to the audio adjustment circuit; The volume controller is electronically connected to the volume adjustment circuit.

9. The apparatus according to claim 1, wherein the computing system is installed outside the main housing.

10. The apparatus according to claim 1, further comprising: a user display, wherein the user display is electronically connected to the computing system.

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