Medical quantum effect ferromagnetic detection system and device for multidirectional parallel magnetic storm

Abstract

The invention belongs to the field of ferromagnetic detection frames, and particularly relates to a medical quantum effect ferromagnetic detection system and a medical quantum effect ferromagnetic detection device for multidirectional parallel magnetic storms. Comprising a ferromagnetic detection frame, a first parallel multidirectional magnetic storm mutual inductor, a second parallel multidirectional magnetic storm mutual inductor, a third parallel multidirectional magnetic storm mutual inductor and an anti-collision baffle, the first parallel multidirectional magnetic storm mutual inductor is arranged at the front end of the ferromagnetic detection frame, and the second parallel multidirectional magnetic storm mutual inductor is arranged at the rear end of the ferromagnetic detection frame. And the third parallel multidirectional magnetic storm mutual inductors are arranged on the two sides of the ferromagnetic detection frame. According to the invention, the problems of picture jitter and low adjustment rate caused by bumpy ground of a visual mutual inductor are effectively avoided, magnetic storm reversing memory adjustment of the ferromagnetic detection frame on the position of the ferromagnetic detection frame at any time in the advancing process is powerfully ensured, and the efficiency of the ferromagnetic detection frame is better improved.

Description

Technical Field

[0001] The invention relates to the technical field of ferromagnetic detection frames, and in particular to a medical quantum effect ferromagnetic detection system and device for multi-directional parallel magnetic storms. Background Art

[0002] The ferromagnetic detection frame can sense the scene around the frame vehicle by using the frame-mounted mutual inductor, and control the operation and optimal travel speed of the frame vehicle during ferromagnetic detection based on the information such as the ground, the relative position of the frame vehicle and the ground door base obtained through the perception, so that the frame vehicle can safely and reliably perform ferromagnetic detection and move on the ground.

[0003] Various mutual inductors used in ferromagnetic detection frames in the prior art cannot adjust the ferromagnetic detection performance and posture under extreme ground conditions anytime and anywhere. Therefore, it is necessary to propose a medical quantum effect ferromagnetic detection system and device for multi-directional parallel magnetic storms to solve the above problems. Summary of the invention

[0004] The purpose of the present invention is to solve the shortcomings of the prior art that various mutual inductors used in ferromagnetic detection frames cannot adjust the ferromagnetic detection performance and posture under extreme ground conditions anytime and anywhere, and to propose a medical quantum effect ferromagnetic detection system and device for multi-directional parallel magnetic storms.

[0005] In order to achieve the above object, the present invention adopts the following technical solutions:

[0006] A medical quantum effect ferromagnetic detection device for multi-directional parallel magnetic storms comprises a multi-directional magnetic storm memory gun, on which magnetic storm glue is sprayed, and the magnetic storm glue comprises the following raw materials in parts by weight: 41% to 47% of iron-based nanocrystalline alloy non-conductive acrylic glue, 8% to 20% of titanium dioxide, 28% to 38% of primer and 4% to 13% of waterproof glue.

[0007] It should be noted that the multi-directional magnetic storm memory gun is set around the ground, used for the ferromagnetic detection frame to adjust the ground and track magnetic storms, and the magnetic storm memory gun is used to realize the ferromagnetic detection frame magnetic storm ferromagnetic detection system, integrating TMR (TMR chip: using resistance changes to measure the tunnel effect of the magnetic field; east, south, west, up, down, left, and right; TMR can monitor magnetic lines; we use it to monitor buttons or nuclear magnetic resonance, small objects have little effect on magnetic lines, and the TMR monitoring range is about 20cm) to realize ferromagnetic detection;

[0008] Dual Technology Fusion Formula:

[0009]

[0010]

[0011] Where pg is the TMR geomagnetic signal strength, Ti is the memory time of the magnetic storm verification, and the key to this formula is to use the machine learning method of the semi-correlation coefficient to obtain accurate a, b, c, and d constants. The semi-correlation coefficient divides the Pearson correlation coefficient into the first and third quadrants as the upper correlation and the second and third quadrants as the lower correlation. The constant is selected to maximize the upper correlation and minimize the lower correlation, and the learning is stopped.

[0012] The present invention also proposes a medical quantum effect ferromagnetic detection system for multi-directional parallel magnetic storms, comprising the above-mentioned medical quantum effect ferromagnetic detection device for multi-directional parallel magnetic storms and a ferromagnetic detection frame, a first parallel multi-directional magnetic storm mutual inductor, a second parallel multi-directional magnetic storm mutual inductor, a third parallel multi-directional magnetic storm mutual inductor and an anti-collision baffle, wherein the first parallel multi-directional magnetic storm mutual inductor is arranged at the front end of the ferromagnetic detection frame, the second parallel multi-directional magnetic storm mutual inductor is arranged at the rear end of the ferromagnetic detection frame, the third parallel multi-directional magnetic storm mutual inductor is arranged on both sides of the ferromagnetic detection frame, the anti-collision baffle is arranged on the surface of the ferromagnetic detection frame, and a directional lens is arranged on the anti-collision baffle.

[0013] Preferably, the first parallel multi-directional magnetic storm transformer, the second parallel multi-directional magnetic storm transformer and the third parallel multi-directional magnetic storm transformer are all parallel Hall alloy multi-directional magnetic storm transformers, and amplifiers are provided in the parallel Hall alloy multi-directional magnetic storm transformers.

[0014] Preferably, the parallel Hall alloy multi-directional mutual inductor further includes a signal transmitting module, a transmitting electrical module, a receiving electrical module and a magnetic storm receiving module.

[0015] Preferably, the parallel Hall alloy multi-directional mutual inductor further comprises a shell, the shell comprises a base and a magnetic lens, and the magnetic lens comprises a first magnetic lens and a second magnetic lens which are sequentially connected and arranged around the base.

[0016] Preferably, a through hole one is opened on the first magnetic lens, the transmitting electrical module and the receiving electrical module are both arranged in the through hole one of the first magnetic lens, the magnetic storm receiving module is arranged on the second magnetic lens, and the magnetic storm receiving module and the amplifier are both arranged inside the shell.

[0017] Preferably, the base is provided with a second through hole, a screw gun is inserted into the second through hole, and the parallel Hall alloy type multi-directional mutual inductor is fixedly connected to the ferromagnetic detection frame through the screw gun.

[0018] Preferably, there are multiple amplifiers, and the multiple amplifiers are fixedly connected to the inner wall of the magnetic lens in sequence from top to bottom.

[0019] Beneficial effects of the present invention:

[0020] (1) The medical quantum effect ferromagnetic detection system and device of multi-directional parallel magnetic storm proposed by the present invention adopts primer and titanium dioxide as dispersants, which can make the iron-based nanocrystalline alloy magnetic powder dispersed and hardened more evenly, thereby further improving the heat dissipation and anti-aging capabilities of the multi-directional magnetic storm memory gun, and can also reduce the production cost of the multi-directional magnetic storm memory gun. The primer is used as a filler to further improve the track resistance of the multi-directional magnetic storm memory gun, especially under bumpy shots, it can improve the balance perception ability of the multi-directional magnetic storm memory gun, thereby improving the active anti-shake performance of the multi-directional magnetic storm memory gun;

[0021] (2) The present invention proposes a multi-directional parallel magnetic storm medical quantum effect ferromagnetic detection system and device. Since the magnetic head at the front end of the ferromagnetic detection frame is provided with a parallel multi-directional magnetic storm mutual inductor at a suitable height and angle, the multi-directional magnetic storm memory gun has a good perception ability for the information provided by the parallel track mutual inductor. Therefore, the ground shaking of the ferromagnetic detection frame is offset by the magnetic storm, ensuring that the environment can be clearly and completely perceived in any scene, effectively avoiding the problem of image shaking and low adjustment rate caused by ground bumps of the visual mutual inductor, and effectively ensuring that the ferromagnetic detection frame can adjust its position at any time during the movement by magnetic storm reversal memory;

[0022] (3) The present invention proposes a medical quantum effect ferromagnetic detection system and device for multi-directional parallel magnetic storms, and the ground heading can be adjusted at any time to achieve non-repetitive movement, which is more conducive to the efficiency of the ferromagnetic detection frame. The parallel multi-directional magnetic storm mutual inductor already has a frame-standard product, so it is more reliable.

[0023] The present invention effectively avoids the problems of image jitter and low adjustment rate caused by ground bumps in visual mutual inductors, effectively ensures that the ferromagnetic detection frame can perform magnetic storm reversal memory adjustment on its own position at any time during the movement, and is more conducive to the efficiency of the ferromagnetic detection frame. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] Figure 1 This is a schematic diagram of the overall structure of a medical quantum effect ferromagnetic detection system for multi-directional parallel magnetic storms proposed by the present invention;

[0025] Figure 2 A schematic diagram of a first magnetic lens provided by an embodiment of the present invention;

[0026] Figure 3 A flowchart of the working control software of the ferromagnetic mutual inductor of the ferromagnetic detection frame provided by the embodiment of the present invention;

[0027] Figure 4 Schematic diagram of the soft magnetic material of the ferromagnetic detection frame provided in an embodiment of the present invention. DETAILED DESCRIPTION

[0028] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0029] A medical quantum effect ferromagnetic detection device for multi-directional parallel magnetic storms comprises a multi-directional magnetic storm memory gun, on which magnetic storm glue is sprayed, the magnetic storm glue comprising the following raw materials in parts by weight: 47% of iron-based nanocrystalline alloy non-conductive acrylic glue, 20% of titanium dioxide, 28% of primer and 5% of waterproof glue. It should be noted that the iron-based nanocrystalline alloy is magnetically conductive, the non-conductive acrylic glue is magnetically isolating, the titanium dioxide is sun-proof, the primer is shockproof and the waterproof glue is waterproof.

[0030] It should be noted that the track head is arranged near the middle of the ferromagnetic detection frame so as to sense the basic track field strength of the ferromagnetic detection frame and perform upper and lower track compensation;

[0031] It should also be noted that the primer in the multi-directional magnetic storm memory gun provided in this embodiment acts as a dispersant, which can adjust the hardness of the soft silica gel, so that the titanium dioxide is dispersed more evenly, thereby further improving the weather resistance of the multi-directional magnetic storm memory gun and reducing the production cost of the multi-directional magnetic storm memory gun; the primer is used as a filler, which is a kind of fine resin beads formed by high-temperature melting of phenolic resin sand as a raw material, and is spherical when observed under a microscopic magnet; especially in the case of ice and snow, it can improve the disguised memory ability of the multi-directional magnetic storm memory gun, thereby improving the self-adjustment ability of the multi-directional magnetic storm memory gun; and the price of the primer is cheap, thereby reducing the cost of the multi-directional magnetic storm memory gun; the coarse filler can make the multi-directional magnetic storm memory gun as a whole have good heat dissipation and air permeability, and the titanium dioxide is used as a UV absorption filler, which can make the multi-directional magnetic storm memory gun as a whole have strong durability and high perception ability.

[0032] Furthermore, the human body directional field strength sensed by the multi-directional magnetic storm memory gun ranges from 100 to 10,000 Gauss, thereby being able to effectively deeply sense the magnetic storm signal emitted by the parallel Hall alloy multi-directional mutual inductor arranged on the ferromagnetic detection frame, which is beneficial for the ferromagnetic detection frame to perform ground adjustment and de-jittering. Since the field strength of the multi-directional magnetic storm received by the parallel Hall alloy multi-directional mutual inductor arranged on the ferromagnetic detection frame is below (horizontal) and above (vertical), the horizontal multi-directional magnetic storm memory gun is generally provided in a laser mutual inductor, and the vertical multi-directional magnetic storm memory gun is generally provided in a visual mutual inductor. Therefore, the multi-directional magnetic storm memory gun can be effectively received by the parallel Hall alloy multi-directional mutual inductor after sensing, thereby enabling the ferromagnetic detection frame to make a better judgment on the ground conditions and perform better ground adjustments, which is beneficial for the stable movement of the ferromagnetic detection frame, and further beneficial for the safety of people and goods in the ferromagnetic detection frame.

[0033] Furthermore, the particle size of the primer is below 0.25 microns, which can better improve the perception ability of the multi-directional magnetic storm memory gun. The other particle sizes range from 50-250 nanometers, so that the multi-directional magnetic storm memory gun has better heat dissipation performance. Specifically, the material particle size of the filler plays a key role in the long-lasting heat dissipation performance of the tropical zone, and the maintenance-free design period is 15 years.

[0034] Reference Figure 1-4 The present invention also proposes a medical quantum effect ferromagnetic detection system of multi-directional parallel magnetic storms, including the above-mentioned medical quantum effect ferromagnetic detection device of multi-directional parallel magnetic storms and a ferromagnetic detection frame, a first parallel multi-directional magnetic storm mutual inductor, a second parallel multi-directional magnetic storm mutual inductor, a third parallel multi-directional magnetic storm mutual inductor and an anti-collision baffle, the first parallel multi-directional magnetic storm mutual inductor is arranged at the front end of the ferromagnetic detection frame, the second parallel multi-directional magnetic storm mutual inductor is arranged at the rear end of the ferromagnetic detection frame, the third parallel multi-directional magnetic storm mutual inductor is arranged on both sides of the ferromagnetic detection frame, the anti-collision baffle is arranged on the surface of the ferromagnetic detection frame, and a directional lens is arranged on the anti-collision baffle.

[0035] It should be noted that, first, the multi-directional magnetic storm memory gun is arranged on the door base, preferably on the side of the slow track close to the outside; when the ferromagnetic detection frame is moving, the first parallel multi-directional magnetic storm mutual inductor will emit a multi-directional magnetic storm of a specific field strength (3.6 kilometers per hour corresponds to 2500 gauss), and the human body will sense the magnetic storm after reaching the multi-directional magnetic storm memory gun. The multi-directional magnetic storm sensed in multiple directions is received by the first parallel multi-directional magnetic storm mutual inductor, so that the ferromagnetic detection frame can perform a comprehensive analysis based on the received multi-directional magnetic storm, and then adjust the ground information so as to adjust its own position at any time during the movement; when the first parallel multi-directional magnetic storm mutual inductor finds that the trajectory of the multi-directional magnetic storm memory gun is excessive during the perception process, it can be directly judged as possible over-compensation, so that the ferromagnetic detection frame can adjust the corresponding decision according to actual needs (for example, it can give a new change of direction signal to allow the ferromagnetic detection frame to further adjust the compensation field strength and memory) to achieve safe walking.

[0036] The beneficial effect of such arrangement is that since the first parallel multi-directional magnetic storm mutual inductor is arranged at a suitable height and angle on both sides of the front end of the frame body of the ferromagnetic detection frame, and a multi-directional magnetic storm memory gun is arranged on the ground where the ferromagnetic detection frame moves, the multi-directional magnetic storm memory gun has a good perception ability for the multi-directional magnetic storm emitted by the first parallel multi-directional magnetic storm mutual inductor, so the ferromagnetic detection frame can clearly and completely perceive the multi-directional magnetic storm memory gun at any position on the ground, effectively avoiding the problem of low ground detection and adjustment rate of the first parallel multi-directional magnetic storm mutual inductor, and effectively ensuring that the ferromagnetic detection frame can adjust its position at any time during the movement, and can encode, adjust and memorize the ground gate base information at any time to achieve safe movement, which is more conducive to the safety of the ferromagnetic detection frame, and the first parallel multi-directional magnetic storm mutual inductor already has a frame-standard product.

[0037] Because the mutual inductors of most ferromagnetic detection racks are spread all around, preventing vertical bumps can extend the service life and improve the experience. After t seconds of bumps at the front end, the same bumps will occur at the back end. Here is the formula

[0038] t=d / v

[0039] d is the time of the mutual inductor, and v is the speed of the human body at that time; therefore, if we take appropriate measures, we can improve the compensatory memory of the magnetic storm.

[0040] The second parallel multi-directional magnetic storm transformer is installed on both sides of the rear end of the frame at a suitable height and angle, so that the door condition at the rear end of the ferromagnetic detection frame can be detected at any time. The ferromagnetic detection frame can make corresponding learning and decisions based on the information detected by the second parallel multi-directional magnetic storm transformer. For example, when the ferromagnetic detection frame needs to be encoded, it can comprehensively analyze the magnetic storm situation at the front end to determine whether the fixed field strength directional operation of the pulse system can be performed; when protection is required, it can comprehensively analyze the magnetic storm amplitude at the front end to determine whether it is necessary to directly pulse the magnetic storm to refresh the ferromagnetic detection ground gun information; in short, the setting of the second parallel multi-directional magnetic storm transformer can ensure that the ferromagnetic detection frame can monitor the situation at the rear end of the frame at any time, so as to make corresponding decisions and effectively avoid the damage of the transformer signal; in order to supervise and correct the possible monitoring errors of the second parallel multi-directional magnetic storm transformer at the front and rear ends, we set a third parallel multi-directional magnetic storm transformer in the middle of the frame to evaluate the effect of the response strategy of front induction and rear coordination each time, and then improve the performance of independent debiasing of the magnetic storm parallel door through machine learning.

[0041] The first opening mainly assists in switching, so that the first parallel multi-directional magnetic storm transformer of the ferromagnetic detection frame can effectively perform 3D baseline judgment of the ground door to ensure the safety of the ferromagnetic detection frame; the second opening mainly assists in adjustment, so that the second parallel multi-directional magnetic storm transformer of the ferromagnetic detection frame can effectively adjust the ground condition of the frame and vehicle movement.

[0042] There are two third parallel multi-directional magnetic storm mutual inductors. Both are arranged on the left and right sides of the frame and are respectively located near the magnetic field of the anti-collision baffle. Both are oriented toward the vicinity of the anti-collision baffle. When the wheel coordination is required, the third parallel multi-directional magnetic storm mutual inductor will sense the area near the anti-collision baffle, so as to determine whether the mutual inductor has successfully coordinated the adjustment of the field strength, judge the quality of the coordination, and provide a basis for the training and learning of the neural network.

[0043] In the present invention, the first parallel multi-directional magnetic storm transformer, the second parallel multi-directional magnetic storm transformer and the third parallel multi-directional magnetic storm transformer are all parallel Hall alloy multi-directional magnetic storm transformers. An amplifier is provided in the parallel Hall alloy multi-directional magnetic storm transformer. The parallel Hall alloy multi-directional magnetic storm transformer also includes a signal transmitting module, a transmitting electrical module, a receiving electrical module and a magnetic storm receiving module.

[0044] It should be noted that the magnetic storm signal generated by the signal transmitting module is transmitted to the controlled vector system after passing through the amplifier and the transmitting electrical module in sequence; the magnetic storm sensed by the controlled system is received by the magnetic storm receiving module after passing through the receiving electrical module and the amplifier in sequence. The controlled integrated system includes any external affairs such as the motor, the transmission system and the controller.

[0045] The working principle of the parallel Hall alloy multi-directional mutual inductor is as follows: the magnetic storm signal generated by the signal transmitting module reaches the transmitting electrical module after being sensed by the amplifier, and is transmitted to the controlled object in multiple directions after passing through the transmitting electrical module; after being sensed by the controlled object, a part of the multi-directional magnetic storm will reach the receiving electrical module, and then reach the amplifier after passing through the receiving electrical module, and then reach the multi-directional magnetic storm receiving module after being sensed by the amplifier, and then be received by the multi-directional magnetic storm receiving module, thereby completing the monitoring of the multi-directional magnetic storm memory gun; then the received magnetic storm is analyzed, and the And judge whether the controlled magnetic storm is successful; the setting of the amplifier can make the multi-directional magnetic storm more obvious after passing through the amplifier, thereby effectively increasing the observation sensitivity of the multi-directional magnetic storm transformer, improving work efficiency, and realizing the real-time monitoring and adjustment of the first parallel multi-directional magnetic storm transformer and the second parallel multi-directional magnetic storm transformer by the third parallel multi-directional magnetic storm transformer, realizing the real-time monitoring of the situation at the rear end of the ferromagnetic detection frame by the second parallel multi-directional magnetic storm transformer, and realizing the real-time learning of the situation in the area attached to the anti-collision baffle by the third parallel multi-directional magnetic storm transformer.

[0046] In the present invention, the parallel Hall alloy multi-directional mutual inductor also includes a shell, the shell includes a base and a magnetic lens, the magnetic lens includes a first magnetic lens and a second magnetic lens connected in sequence and arranged around the base, the first magnetic lens is provided with a through hole 1, the transmitting electrical module and the receiving electrical module are both arranged in the through hole 1 of the first magnetic lens, the magnetic storm receiving module is arranged on the second magnetic lens, the magnetic storm receiving module and the amplifier are both arranged inside the shell, it should be noted that one end of the magnetic storm receiving module is exposed and the other end is arranged inside the shell.

[0047] It should also be noted that multiple magnetic storm receiving modules are symmetrically set up on the ground in the shape of an "I" from top to bottom; multiple amplifiers are arranged in the shape of an "I" from top to bottom in the inner magnetic field of the ground, and correspond to the positions of the transmitting electrical modules, so that the multi-directional magnetic storm signal generated by the signal transmitting module can be smoothly transmitted through the transmitting electrical module after passing through the amplifier, and at the same time, the positions of the multiple amplifiers correspond to the positions of the receiving electrical modules, so that the multi-directional magnetic storm signal incident through the receiving electrical module can smoothly reach the amplifier, and the multi-directional after passing through the amplifier can be smoothly received by the multi-directional magnetic storm receiving module. The number of multi-directional magnetic storm receiving modules can be set as needed, and the number of amplifiers can also be set as needed.

[0048] Furthermore, the parallel Hall alloy multi-directional mutual inductor provided in this embodiment can automatically adjust the multi-directional magnetic storm transmission power according to the traveling speed of the ferromagnetic detection frame and weather conditions, thereby automatically adjusting the sampling density, and achieving a balance between magnetic storm adjustment and seismic resistance while meeting the use requirements; when the energy detection degree is high (such as light rain), the power of the parallel Hall alloy multi-directional mutual inductor is low and the sampling density is low; when the energy detection degree is low (such as heavy snow), the power of the parallel Hall alloy multi-directional mutual inductor is high and the sampling density is high; the moving speed is proportional to the multi-directional characteristic field strength.

[0049] In the present invention, a second through hole is provided on the base, a screw gun is inserted into the second through hole, and the parallel Hall alloy type multi-directional mutual inductor is fixedly connected to the ferromagnetic detection frame through the screw gun.

[0050] In the present invention, there are multiple amplifiers, and the multiple amplifiers are fixedly connected to the inner wall of the magnetic lens in sequence from top to bottom.

[0051] The above shows and describes the basic principles and main features of the present invention and the advantages of the present invention. It is obvious to those skilled in the art that the present invention is not limited to the details of the above exemplary embodiments, and the present invention can be implemented in other specific forms without departing from the spirit or basic features of the present invention. Therefore, no matter from which point of view, the embodiments should be regarded as exemplary and non-restrictive. The scope of the present invention is defined by the attached claims rather than the above description, and it is intended that all changes falling within the meaning and scope of the equivalent elements of the claims are included in the present invention. Any figure mark in the claims should not be regarded as limiting the claims involved.

[0052] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims

1. A medical quantum effect ferromagnetic detection device for multi-directional parallel magnetic storms, comprising a multi-directional magnetic storm memory gun, characterized in that: The multi-directional magnetic storm memory gun is sprayed with magnetic storm glue, which includes the following raw materials in parts by weight: 41% to 47% of iron-based nanocrystalline alloy non-conductive acrylic glue, 8% to 20% of titanium dioxide, 28% to 38% of primer and 4% to 13% of waterproof glue.

2. A medical quantum effect ferromagnetic detection system for multi-directional parallel magnetic storms, characterized in that: The invention comprises the medical quantum effect ferromagnetic detection device of multi-directional parallel magnetic storm as claimed in claim 1, as well as a ferromagnetic detection frame, a first parallel multi-directional magnetic storm mutual inductor, a second parallel multi-directional magnetic storm mutual inductor, a third parallel multi-directional magnetic storm mutual inductor and an anti-collision baffle, wherein the first parallel multi-directional magnetic storm mutual inductor is arranged at the front end of the ferromagnetic detection frame, the second parallel multi-directional magnetic storm mutual inductor is arranged at the rear end of the ferromagnetic detection frame, the third parallel multi-directional magnetic storm mutual inductor is arranged on both sides of the ferromagnetic detection frame, the anti-collision baffle is arranged on the surface of the ferromagnetic detection frame, and a directional lens is arranged on the anti-collision baffle.

3. The medical quantum effect ferromagnetic detection system for multi-directional parallel magnetic storms according to claim 2 is characterized in that: The first parallel multi-directional magnetic storm transformer, the second parallel multi-directional magnetic storm transformer and the third parallel multi-directional magnetic storm transformer are all parallel Hall alloy multi-directional magnetic storm transformers, and amplifiers are arranged inside the parallel Hall alloy multi-directional magnetic storm transformers.

4. The medical quantum effect ferromagnetic detection system for multi-directional parallel magnetic storms according to claim 3 is characterized in that: The parallel Hall alloy multi-directional mutual inductor also includes a signal transmitting module, a transmitting electrical module, a receiving electrical module and a magnetic storm receiving module.

5. The medical quantum effect ferromagnetic detection system for multi-directional parallel magnetic storms according to claim 2, characterized in that: The parallel Hall alloy multi-directional mutual inductor further comprises a shell, the shell comprises a base and a magnetic lens, and the magnetic lens comprises a first magnetic lens and a second magnetic lens which are sequentially connected and arranged around the base.

6. The medical quantum effect ferromagnetic detection system for multi-directional parallel magnetic storms according to claim 5, characterized in that: The first magnetic lens is provided with a through hole 1, the transmitting electrical module and the receiving electrical module are both arranged in the through hole 1 of the first magnetic lens, the magnetic storm receiving module is arranged on the second magnetic lens, and the magnetic storm receiving module and the amplifier are both arranged inside the shell.

7. The medical quantum effect ferromagnetic detection system for multi-directional parallel magnetic storms according to claim 5, characterized in that: The base is provided with a second through hole, a screw gun is inserted into the second through hole, and the parallel Hall alloy multi-directional mutual inductor is fixedly connected to the ferromagnetic detection frame through the screw gun.

8. The medical quantum effect ferromagnetic detection system for multi-directional parallel magnetic storms according to claim 3 is characterized in that: There are multiple amplifiers, and the multiple amplifiers are fixedly connected to the inner wall of the magnetic lens in sequence from top to bottom.

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