Quantum robot with function of detecting and lifting magnetized magnetic field

Abstract

The quantum robot with the function of detecting and lifting the magnetized field comprises a machine body mechanism, a machine head is arranged at the top of the machine body mechanism, and a base mechanism is arranged at the bottom of the machine body mechanism. According to the invention, the system firstly calibrates the sensing module, initializes the quantum processor, and establishes baseline parameters to realize initialization operation; the sensor module collects environmental data and inputs the environmental data into the neural network module for analysis so as to realize data acquisition operation; the decision-making module evaluates possible operations by using quantum logic, and selects an optimal selection to realize a decision-making process; the selected operation is executed through the touch display screen, and the feedback module monitors and adjusts the performance of the quantum robot for execution and feedback; the learning interface updates an artificial intelligence algorithm in real time to ensure that the quantum robot continuously develops and improves the ability so as to realize continuous learning; by integrating the modules and processes, the detection function and the magnetic field magnetizing capacity of the quantum robot are effectively enhanced.

Description

Technical Field

[0001] The present invention relates to the field of quantum medicine technology, and in particular to a quantum robot with the function of detecting and enhancing a magnetizing magnetic field. Background Art

[0002] The human body is a collection of a large number of cells. Cells are constantly growing, developing, differentiating, regenerating, and dying. Cells are constantly renewing themselves through self-division. About 25 million cells in an adult divide every second, and the blood cells in the human body are constantly renewed at a rate of about 100 million per minute. In the process of cell division and growth, the atomic nuclei and extranuclear electrons that constitute the most basic units of the cells are also constantly moving and changing at high speed, and they are constantly emitting electromagnetic waves. The electromagnetic wave signals emitted by the human body represent the specific state of the human body. The electromagnetic wave signals emitted are different when the human body is healthy, sub-healthy, or diseased. If these specific electromagnetic wave signals can be measured, the life state of the human body can be measured.

[0003] Quantum medicine believes that the most fundamental reason for people to get sick is the change in the spin and orbit of the electrons outside the nucleus, which in turn causes changes in the atoms that make up the material, then changes in small biological molecules, then changes in large biological molecules, then changes in the entire cell, and finally changes in the organs. Because the electron is a charged body, when the spin and orbit of the electrons outside the nucleus change, the electromagnetic waves emitted by the atom will change. The energy of the electromagnetic waves caused by human diseases and changes in nutritional status is extremely weak, usually only nanogauss to microgauss. The frequency and energy of the weak magnetic field are measured by holding a sensor in the hand, and after amplification by the instrument and computer processing, the standard quantum resonance spectrum of the disease and nutritional indicators set inside the instrument is compared to output the corresponding quantitative value. The size of the quantitative value indicates the nature, degree and nutritional level of the disease. This is a bit similar to the principle of listening to a radio station. There are many radio waves in the air. If you want to listen to a specific radio station, tune the radio to that frequency. At this time, resonance occurs and you can hear the radio station. Quantum resonance is detected using this principle.

[0004] The quantum weak magnetic field resonance analyzer is a multidisciplinary high-tech innovation project involving medicine, bioinformatics, electronic engineering, etc. It is based on the theory of quantum medicine and uses advanced electronic equipment to collect the weak magnetic field of human cells for scientific analysis, analyzes and judges the health status and main problems of the subjects, and puts forward standardized prevention and treatment suggestions.

[0005] The existing quantum weak magnetic field resonance analyzers have the following problems during use:

[0006] 1. Limitation of data processing speed: It is difficult to process large amounts of data at high speed, which limits its ability to make real-time decisions;

[0007] 2. High energy consumption: Quantum computing requires a lot of energy, so it is difficult to maintain the power efficiency of the quantum weak magnetic field resonance analyzer to perform tasks, resulting in the need for frequent charging and reduced operating time;

[0008] 3. Poor flexibility: Due to rigid programming, it is usually unable to adapt to unpredictable or dynamic environments;

[0009] 4. Limited interaction: It is difficult to achieve seamless interaction with biological systems;

[0010] 5. Inaccurate sensory feedback: It is highly sensitive to environmental factors, which affects its stability and reliability. The high error rate in quantum computing will cause inaccurate functions and decision-making processes.

[0011] To this end, a quantum robot with the function of detecting and enhancing the magnetization magnetic field is proposed. Summary of the invention

[0012] The technical task of the present invention is to address the above shortcomings and provide a quantum robot with the function of detecting and enhancing the magnetization magnetic field, so as to solve the above problems.

[0013] To achieve the above object, the present invention provides the following technical solutions:

[0014] A quantum robot with the function of detecting and enhancing magnetization magnetic field comprises a body structure, a head is arranged on the top of the body structure, a base structure is arranged at the bottom of the body structure, and a touch display screen is arranged at the front side of the body structure;

[0015] The body mechanism is used to provide a mounting base for the head, base mechanism, touch screen, angle adjustment mechanism, protection mechanism and moving mechanism;

[0016] The handpiece is used to measure the frequency and energy of weak magnetic fields;

[0017] The base mechanism is used to provide a support base for the fuselage mechanism and enable movement;

[0018] The touch display screen is used for detecting information display, interacting with people and controlling applications.

[0019] Preferably, the body structure comprises a lower housing, the top of the lower housing is fixedly connected to an upper housing, both sides of the upper housing are fixedly connected to a connecting seat, the touch screen is located between the two connecting seats, and the connecting seat is rotatably connected to the touch screen;

[0020] The inner cavity of the upper housing is provided with a quantum processor, a high-capacity storage module, a communication module, a neural network module, a decision module, a learning module, a feedback module and a control module; the head is provided with a sensor module; the quantum processor, the high-capacity storage module, the communication module, the neural network module, the decision module, the learning module, the feedback module and the sensor module are electrically connected to the control module respectively; the control module is electrically connected to the touch display screen; the inner cavity of the lower housing is provided with a power module electrically connected to the quantum processor, the high-capacity storage module, the communication module, the neural network module, the decision module, the learning module, the feedback module, the control module, the sensor module and the touch display screen respectively;

[0021] The quantum processor is responsible for executing a quantum algorithm for simulating a complex neural network;

[0022] The high-capacity storage module is used to store large quantum states and data sets;

[0023] The communication module is used to allow the quantum processor and each module to communicate with an external system;

[0024] The neural network module uses quantum enhanced neural network for pattern recognition and learning;

[0025] The decision module uses quantum logic gates to evaluate multiple outcomes and determine the best path;

[0026] The learning module is used to connect to cloud-based artificial intelligence resources for continuous updating and learning;

[0027] The feedback module is used to provide real-time feedback to the artificial intelligence system to achieve adaptive learning;

[0028] The sensing module is composed of a camera, a microphone and a tactile sensor, and is used to sense the environment. The camera and the microphone are both installed on the head of the machine, and one tactile sensor is installed on each side of the head of the machine;

[0029] The control module is used to manage the motion function and interactive response of the quantum robot;

[0030] The power module is used to provide power for the quantum processor, high-capacity storage module, communication module, neural network module, decision module, learning module, feedback module, control module, sensor module and touch display screen to ensure the operation of each module and the touch display screen.

[0031] Preferably, the base mechanism comprises a chassis fixedly connected to the bottom of the lower casing, and a walking mechanism electrically connected to the control module is installed at the bottom of the chassis.

[0032] Preferably, an angle adjustment mechanism for adjusting the inclination angle of the touch screen is provided on both sides of the upper shell, and the touch screen is located between the two angle adjustment mechanisms. The upper shell is also provided with a protective mechanism for shielding and protecting the touch screen, and a moving mechanism for driving the protective mechanism to move is provided inside the upper shell.

[0033] Preferably, the angle adjustment mechanism includes a mechanical arm installed on the side of the upper housing, the free end of the mechanical arm is fixedly connected to a protrusion facing the touch display screen, and the bottom of the side of the touch display screen is provided with a groove matching the protrusion, and one end of the protrusion passes through the corresponding groove.

[0034] Preferably, the protective mechanism includes a connecting plate movably connected to the top of the inner cavity of the upper shell, one side of the connecting plate movably penetrates to the outside of the upper shell and is rotatably connected to a baffle, the baffle blocks the surface of the touch display screen, and a locking member for positioning the baffle is provided on the connecting plate.

[0035] Preferably, a rubber ring pad is fixedly connected to the surface of the touch display screen, and one side of the rubber ring pad is in contact with the baffle.

[0036] Preferably, the locking member includes a through slot provided on the connecting plate, a horizontally arranged electric telescopic rod is installed in the inner cavity of the through slot, a positioning block is fixedly connected to the output end of the electric telescopic rod, a positioning slot matching the positioning block is provided on the baffle, and the positioning block extends from a side away from the electric telescopic rod to the inner cavity of the positioning slot.

[0037] Preferably, the moving mechanism includes a support plate fixedly connected to the side of the connecting plate away from the baffle, a screw hole is opened in the middle of the surface of the support plate, the inner cavity of the screw hole is threadedly connected with a horizontally arranged screw, one end of the screw is rotatably connected to the inner wall surface of the upper casing through a bearing, the inner cavity of the upper casing is fixedly connected with a support plate, a stepper motor is installed on the top of the support plate, the output shaft of the stepper motor and the other end of the screw are movably penetrated to the outside of the upper casing and are connected through a transmission member.

[0038] Preferably, the linkage comprises a driving gear fixedly connected to an output shaft of the stepping motor, and an end of the screw rod away from the touch display screen is fixedly connected to a driven gear meshing with the driving gear.

[0039] Compared with the prior art, the advantages and positive effects of the present invention are:

[0040] 1. The present invention first calibrates the sensing module through the system, initializes the quantum processor, and establishes baseline parameters to achieve initialization operation; the sensor module collects environmental data and inputs it into the neural network module for analysis to achieve data acquisition operation; the decision module uses quantum logic to evaluate possible operations and selects the best option to achieve the decision process; the selected operation is executed through the touch display screen, and the feedback module monitors and adjusts the performance of the quantum robot to execute and feedback; the learning interface updates the artificial intelligence algorithm in real time to ensure that the quantum robot continues to develop and improve its capabilities to achieve continuous learning; by integrating these modules and processes, the detection function of the quantum robot and the ability of magnetizing the magnetic field are effectively enhanced, setting a new standard for the interaction and intelligence of the quantum robot system;

[0041] 2. The present invention, utilizing quantum computing, possesses unparalleled processing power, enabling the quantum robot to solve complex problems and perform calculations at speeds unimaginable by conventional computers, thereby speeding up decision-making and improving efficiency, with the advantage of superior computing power.

[0042] 3. The present invention, by being equipped with advanced biological intelligence algorithms, can achieve continuous learning and adaptation, can modify its behavior based on past experience, and improve its functionality and effectiveness over time without human intervention, and has the advantages of adaptive learning and self-improvement.

[0043] 4. The present invention, in simulating biological processes, can interact seamlessly with biological systems and the environment. This capability is crucial for applications in healthcare, agriculture, and environmental management, and has the advantage of enhancing interaction with biological systems.

[0044] 5. The present invention enables quantum robots to operate with high energy efficiency through the integration of quantum technology, which not only reduces operating costs but also minimizes the impact on the environment, making them a sustainable choice for various industries and improving energy efficiency.

[0045] 6. This invention has a wide range of applications, from medical diagnosis and treatment to complex data analysis and autonomous decision-making. Its versatility makes it a valuable asset in many fields such as healthcare, finance, logistics and scientific research, significantly improving the efficiency, applicability and reliability of the quantum robot, paving the way for more advanced and more versatile applications in the future.

[0046] 7. This invention uses quantum weak magnetic field to heal the body, magnetize cells, make our cells more active, inject quantum energy into food, change the molecular structure of food, and make food taste more delicious;

[0047] 8. The present invention can not only play an auxiliary supporting role for the touch screen through the angle adjustment mechanism, improve the connection stability between the touch screen and the body mechanism, but also adjust the angle of the touch screen, and then adjust the angle of the touch screen accordingly according to the height of the user, so as to improve the applicability of the touch screen, as well as the perception and experience of human-computer interaction;

[0048] 9. The present invention can shield and protect the surface of the touch display screen through the protective mechanism, effectively preventing the screen from being scratched by dust or even collision with external forces after long-term non-use, which helps to extend the service life of the touch display screen;

[0049] 10. The present invention can drive the protective mechanism to automatically block the touch screen or move away from the touch screen through the moving mechanism, without manual operation, and is more convenient to use; at the same time, after being moved away from the touch screen, it can enter the inner cavity of the fuselage mechanism for hidden storage, which not only avoids obstruction to the angle adjustment of the touch screen, but also improves the overall aesthetics of the quantum robot. BRIEF DESCRIPTION OF THE DRAWINGS

[0050] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0051] Figure 1 This is a structural schematic diagram of a quantum robot having a function of detecting and enhancing a magnetizing magnetic field according to an embodiment of the present invention, in which a protective mechanism is in a shielding state;

[0052] Figure 2 This is a schematic structural diagram of a quantum robot having a function of detecting and enhancing a magnetizing magnetic field according to an embodiment of the present invention, in which a protective mechanism is in a hidden state;

[0053] Figure 3 It is a schematic diagram of the structure explosion of the upper housing and the touch display screen of the quantum robot having the function of detecting and enhancing the magnetization magnetic field according to an embodiment of the present invention;

[0054] Figure 4 It is a schematic cross-sectional view of the structure of the upper housing of a quantum robot having the function of detecting and increasing the magnetization magnetic field according to an embodiment of the present invention;

[0055] Figure 5 Schematic diagram of the structure of the protection mechanism and the moving mechanism of the quantum robot with the function of detecting and enhancing the magnetization magnetic field according to the embodiment of the present invention Figure 1 ;

[0056] Figure 6Schematic diagram of the structure of the protection mechanism and the moving mechanism of the quantum robot with the function of detecting and enhancing the magnetization magnetic field according to the embodiment of the present invention Figure 2 ;

[0057] Figure 7 It is a schematic diagram of the explosion structure of the protection mechanism and the support plate of the quantum robot having the function of detecting and enhancing the magnetization magnetic field according to an embodiment of the present invention;

[0058] Figure 8 This is a schematic cross-sectional view of the structure of the connection plate and the locking member of the quantum robot having the function of detecting and enhancing the magnetizing magnetic field according to an embodiment of the present invention.

[0059] In the figure: 100, body structure; 110, lower housing; 120, upper housing; 121, threading hole; 122, vent; 130, connection seat;

[0060] 200, nose;

[0061] 300, base mechanism; 310, chassis; 320, walking mechanism;

[0062] 400, touch screen; 410, rubber ring pad;

[0063] 500, angle adjustment mechanism; 510, mechanical arm; 520, convex block; 530, groove;

[0064] 600, protective mechanism; 610, connecting plate; 620, baffle; 621, positioning groove; 630, locking member; 631, through groove; 632, electric telescopic rod; 633, positioning block; 634, slide groove; 635, shield;

[0065] 700, moving mechanism; 710, supporting plate; 711, screw hole; 712, sliding hole; 720, screw rod; 730, supporting plate; 740, stepping motor; 750, driving gear; 760, driven gear; 770, guide rod;

[0066] 800. Cover. DETAILED DESCRIPTION

[0067] In order to more clearly understand the above-mentioned purpose, features and advantages of the present invention, the present invention is further described below in conjunction with the accompanying drawings and embodiments. It should be noted that the embodiments of the present application and the features in the embodiments can be combined with each other without conflict.

[0068] The present invention will be further described below in conjunction with the accompanying drawings and specific embodiments.

[0069] Example 1

[0070] like Figure 1-Figure 8As shown, a quantum robot with the function of detecting and enhancing magnetization magnetic field according to an embodiment of the present invention includes a body mechanism 100, a head 200 is provided on the top, a base mechanism 300 is provided at the bottom of the body mechanism 100, and a touch display screen 400 is provided on the front side of the body mechanism 100; the body mechanism 100 is used to provide an installation basis for the head 200, the base mechanism 300, the touch display screen 400, the angle adjustment mechanism 500, the protection mechanism 600 and the moving mechanism 700; the head 200 is used to measure the frequency and energy of weak magnetic fields; the base mechanism 300 is used to provide a support basis for the body mechanism 100 and enable it to move and walk; the touch display screen 400 is used to detect information display, interact with people and control applications.

[0071] Example 2

[0072] like Figure 1-Figure 8 As shown, the quantum robot with the function of detecting and enhancing the magnetization magnetic field provided in this embodiment is different from that in embodiment 1 in that:

[0073] The body mechanism 100 includes a lower housing 110, the top of the lower housing 110 is fixedly connected to an upper housing 120, both sides of the upper housing 120 are fixedly connected to a connecting seat 130, the touch display screen 400 is located between the two connecting seats 130, and the connecting seat 130 and the touch display screen 400 are rotatably connected via a rotating shaft;

[0074] The inner cavity of the upper housing 120 is provided with a quantum processor, a high-capacity storage module, a communication module, a neural network module, a decision module, a learning module, a feedback module and a control module. The head 200 is provided with a sensor module. The quantum processor, the high-capacity storage module, the communication module, the neural network module, the decision module, the learning module, the feedback module and the sensor module are electrically connected to the control module respectively. The control module is electrically connected to the touch display screen 400. The inner cavity of the lower housing 110 is provided with a power module electrically connected to the quantum processor, the high-capacity storage module, the communication module, the neural network module, the decision module, the learning module, the feedback module, the control module, the sensor module and the touch display screen 400 respectively. A threading hole 121 for a wire to pass through is provided on one side of the upper housing 120 facing the touch display screen 400. A plurality of vents 122 distributed in an array are provided on one side of the upper housing 120 away from the touch display screen 400 for ventilation and heat dissipation of each module.

[0075] Quantum processors are responsible for executing quantum algorithms that simulate complex neural networks;

[0076] High-capacity memory modules for storing large quantum states and data sets;

[0077] The communication module is used to allow the quantum processor and each module to communicate with the external system;

[0078] The quantum processor is connected to a high-capacity storage unit that stores quantum states. This arrangement helps to quickly execute artificial intelligence algorithms and enhance the decision-making process. The communication module ensures data exchange between the quantum robot and external systems, enabling real-time updates and interactions.

[0079] The neural network module uses quantum-enhanced neural networks for pattern recognition and learning;

[0080] The decision module uses quantum logic gates to evaluate multiple outcomes and decide the best path;

[0081] The learning module is used to connect to cloud-based AI resources for continuous updating and learning;

[0082] The neural network module enables the quantum robot to analyze and recognize complex patterns. By applying quantum principles, the neural network module can process information faster and more accurately. The decision-making module uses quantum logic to evaluate potential actions, enabling the quantum robot to make wise decisions. The learning module ensures that the quantum robot can keep up to date with the latest advances in artificial intelligence.

[0083] The feedback module is used to provide real-time feedback to the artificial intelligence system to achieve adaptive learning;

[0084] The sensing module is composed of a camera, a microphone and a tactile sensor, and is used to sense the environment. The camera and the microphone are both installed on the head 200, and the tactile sensor is installed on both sides of the head 200;

[0085] The control module is used to manage the motion function and interactive response of the quantum robot;

[0086] The power module is used to provide power to the quantum processor, the high-capacity storage module, the communication module, the neural network module, the decision module, the learning module, the feedback module, the control module, the sensor module and the touch display screen 400 to ensure the operation of each module and the touch display screen 400;

[0087] The sensor module collects data from the environment, the artificial intelligence system processes this data to understand the context and interactions, the feedback module allows the quantum robot to adjust its actions based on real-time input and enhance its adaptability; the control interface coordinates the robot's actions and responses to achieve seamless interaction with humans.

[0088] Among them, the quantum processor can use the QuantumCore QC-1000 model, which uses superconducting quantum bit technology, supports multi-qubit entanglement and parallel computing, and is suitable for executing complex quantum algorithms. The evolution equation of the quantum state is as follows:

[0089]

[0090] where ψ is the quantum state, is the Hamiltonian, h is the reduced Planck constant, and t is time.

[0091] Among them, the high-capacity storage module can be selected as the QuantumStorage QS-512TB high-capacity storage module, which is based on quantum storage technology, has extremely high storage density and read and write speed, and can store a large number of quantum states and data sets;

[0092] The communication module can be the QuantumLink QL-Ultra, which supports quantum key distribution and quantum entanglement communication to ensure the security and efficiency of data transmission.

[0093] The neural network module can be a QuantumNN QNN-128 neural network module, which uses a quantum-enhanced neural network architecture to recognize and learn complex patterns faster.

[0094] The decision module can be a QuantumDecision QD-8 decision module, which uses quantum logic gates for decision evaluation and can quickly find the best path or solution.

[0095] The learning module can use the QuantumLearn QL-Cloud model, which is connected to cloud-based artificial intelligence resources and can continuously update and learn the latest knowledge.

[0096] The feedback module can use the FeedbackLoop FL-RealTime feedback module, which provides a real-time feedback mechanism, allowing the quantum robot to adjust its actions and strategies according to environmental input.

[0097] The sensing module includes a camera, a microphone, and a tactile sensor;

[0098] Camera: OmniVision OV9712, high-definition camera, supports night vision function.

[0099] Microphone: MEMS microphone, high sensitivity, low noise.

[0100] Tactile sensor: Flexiforce tactile sensor, which can sense tiny changes in pressure.

[0101] The control module can be QuantumControl QC-Moto, which is responsible for managing and coordinating the motion functions and interactive responses of the quantum robot to achieve precise control.

[0102] The power module model: QuantumPower QP-10000mAh, has the advantages of high energy density, supports fast charging and long battery life, and provides stable power supply for all modules.

[0103] Touch screen model: Sharp LQ156D1JW31, 15.6-inch high-definition touch screen, supports multi-touch and gesture recognition.

[0104] The base mechanism 300 includes a chassis 310 fixedly connected to the bottom of the lower housing 110. A walking mechanism 320 electrically connected to the control module is installed at the bottom of the chassis 310. By starting the walking mechanism 320, the quantum robot with the function of detecting and enhancing the magnetized magnetic field can be driven to move to the desired position.

[0105] An angle adjustment mechanism 500 for adjusting the inclination angle of the touch display screen 400 is provided on both sides of the upper housing 120, and the touch display screen 400 is located between the two angle adjustment mechanisms 500. The upper housing 120 is also provided with a protective mechanism 600 for shielding and protecting the touch display screen 400. A moving mechanism 700 for driving the protective mechanism 600 to move is provided in the upper housing 120. The angle adjustment mechanism 500 can be used to adjust the angle of the touch display screen 400 when the touch display screen 400 is in use; the protective mechanism 600 can be used to shield and protect the surface of the touch display screen 400 when the touch display screen 400 is not in use; and the moving mechanism 700 can drive the protective mechanism 600 to automatically shield the touch display screen 400 or move away from the touch display screen 400 without manual operation.

[0106] The angle adjustment mechanism 500 includes a mechanical arm 510 installed on the side of the upper housing 120, and a protrusion 520 is fixedly connected to the free end of the mechanical arm 510 facing the side of the touch display screen 400. A groove 530 adapted to the protrusion 520 is opened at the bottom of the side of the touch display screen 400, and one end of the protrusion 520 penetrates into the corresponding groove 530. By starting the mechanical arm 510, the protrusion 520 can be driven to move, and the protrusion 520 can push the bottom of the touch display screen 400 to move synchronously, so that the touch display screen 400 can rotate with the rotating shaft on the connecting seat 130 as the center of the circle to achieve the angle adjustment of the touch display screen 400, and then the angle of the touch display screen 400 can be adjusted accordingly according to the height of the user, thereby improving the applicability of the touch display screen 400, as well as the perception and experience of human-computer interaction.

[0107] The protection mechanism 600 includes a connecting plate 610 that is horizontally movably connected to the upper part of the inner cavity of the upper housing 120. One side of the connecting plate 610 is movably connected to the outer side of the upper housing 120 and is rotatably connected to a baffle 620 through a rotating shaft. The baffle 620 blocks the surface of the touch display screen 400. A locking member 630 for positioning the baffle 620 is provided on the connecting plate 610. The protective mechanism 600 can shield and protect the surface of the touch display screen 400, effectively preventing the screen from being scratched by dust or even collision with external forces after long-term non-use, which helps to extend the service life of the touch display screen 400. The thickness of the connecting plate 610 and the baffle 620 is the same to ensure that the subsequent baffle 620 can be smoothly connected. The plate 610 moves to the inner cavity of the upper housing 120. A through hole is provided on the upper housing 120 for the connecting plate 610 to pass through. In order to ensure that the baffle plate 620 can smoothly enter the inner cavity of the upper housing 120, the bottom of the inner cavity of the through hole is inclined; a rubber ring gasket 410 is fixedly connected to the surface of the touch display screen 400, and one side of the rubber ring gasket 410 is in contact with the baffle plate 620. The rubber ring gasket 410 can prevent the baffle plate 620 from directly contacting and colliding with the surface of the touch display screen 400 when it rotates downward due to its own gravity, which helps to reduce the impact force when the baffle plate 620 flips down to block and plays a buffering role; the locking member 630 includes a through slot 631 provided on the connecting plate 610, and a horizontally arranged electric telescopic rod 632 is installed in the inner cavity of the through slot 631. The output end of the retractable rod 632 is fixedly connected with a positioning block 633, and a positioning groove 621 adapted to the positioning block 633 is opened on the baffle 620. The side of the positioning block 633 away from the electric telescopic rod 632 penetrates into the inner cavity of the positioning groove 621. By starting the electric telescopic rod 632, the positioning block 633 can be driven to move horizontally in the inner cavity of the through groove 631, so that the positioning block 633 is inserted into or moved out of the inner cavity of the positioning groove 621. When the positioning block 633 is inserted into the inner cavity of the positioning groove 621, the baffle 620 can be locked, so that the baffle 620 can be stably maintained in a shielding state to prevent accidental opening; when the positioning block 633 moves out of the inner cavity of the positioning groove 621, the baffle 620 can be unlocked, which is convenient for subsequent use of the moving mechanism 700 and the connecting plate 610. The movable baffle 620 moves; a slide groove 634 connected to the through groove 631 is provided at the top and bottom of the connecting plate 610, and a shield plate 635 is slidably connected to the inner cavity of the two slide grooves 634. The top and bottom of the positioning block 633 and the side away from the baffle 620 are respectively fixedly connected to the two shield plates 635. When the positioning block 633 moves, it can drive the shield plate 635 to slide in the inner cavity of the slide groove 634, which can limit the positioning block 633, so that the positioning block 633 can move stably horizontally, and at the same time, it can also shield the electric telescopic rod 632 in the through groove 631 to prevent the electric telescopic rod 632 from being directly exposed, which can not only protect the electric telescopic rod 632, but also improve the integrity and aesthetics of the protection mechanism 600.

[0108] The moving mechanism 700 includes a support plate 710 which is vertically fixedly connected to the side of the connecting plate 610 away from the baffle 620. A screw hole 711 is opened in the middle of the surface of the support plate 710. The inner cavity of the screw hole 711 is threadedly connected with a horizontally arranged screw rod 720. One end of the screw rod 720 is rotatably connected to the inner wall surface of the upper housing 120 through a bearing. The inner cavity of the upper housing 120 is fixedly connected with a support plate 730. A stepper motor 740 is installed on the top of the support plate 730. The output shaft of the stepper motor 740 and the other end of the screw rod 720 are both movable and penetrated to the outside of the upper housing 120 and are connected through a transmission member. By starting the stepper motor 740, the screw rod 720 can be driven to rotate through the transmission member. Under the action of the thread, the support plate 710 and the protective mechanism 600 can be driven to move horizontally, so that the baffle 620 can gradually move away from the touch display screen 400 or approach the touch display screen 400.

[0109] The linkage includes a driving gear 750 fixedly connected to the output shaft of the stepping motor 740, and a driven gear 760 meshing with the driving gear 750 is fixedly connected to the end of the screw rod 720 away from the touch display screen 400. When the output shaft of the stepping motor 740 rotates, the driving gear 750 and the driven gear 760 can be driven to rotate, and then the screw rod 720 can be driven to rotate synchronously; a sliding hole 712 is provided on both sides of the surface of the support plate 710, and a guide rod 770 parallel to the screw rod 720 is slidably penetrated through the inner cavity of the sliding hole 712, and both ends of the guide rod 770 are connected to the inner cavity of the upper housing 120. The wall surface is fixedly connected. When the support plate 710 moves, the sliding hole 712 is driven to move synchronously, so that the support plate 710 can slide on the surface of the guide rod 770, which can guide the support plate 710 and enable the support plate 710 to stably move along the axial direction of the screw rod 720 to avoid deviation or shaking. The rear side surface of the upper housing 120 is fixedly connected with a cover shell 800, and the driving gear 750 and the driven gear 760 are both located in the inner cavity of the cover shell 800. The cover shell 800 can shield the driving gear 750 and the driven gear 760, which helps to improve the safety of the transmission parts during operation.

[0110] Working principle:

[0111] S1. Equipment adjustment: The camera detects the approach of a person and transmits the monitoring data to the control module. The control module receives the data and controls the operation of the electric telescopic rod 632 and the stepper motor 740. The output end of the electric telescopic rod 632 drives the positioning block 633 to move in the inner cavity of the through groove 631 toward the upper housing 120. The positioning block 633 drives the shielding plate 635 to slide in the inner cavity of the slide groove 634 until the positioning block 633 is separated from the inner cavity of the positioning groove 621, and the unlocking operation of the baffle 620 is completed. Then the output shaft of the stepper motor 740 drives the driving gear 750 to rotate, and the driving gear 750 drives the driven gear 760 and the screw 720 to rotate. Under the action of the thread, the screw 720 drives the support plate 710 to move along its axial direction. The support plate 710 moves on the guide rod 77. 0, the support plate 710 drives the connecting plate 610, the baffle 620 and the locking member 630 to move synchronously toward the inner cavity of the upper housing 120, so that the baffle 620 gradually turns upward until the baffle 620 is close to the through hole on one side of the connecting plate 610. At this time, the connecting plate 610 continues to drive the baffle 620 to move, so that the baffle 620 gradually moves to the inner cavity of the upper housing 120 until it reaches the maximum limit, so that the baffle 620 can be hidden and stored; by starting the mechanical arm 510, the mechanical arm 510 drives the protrusion 520 to move, and the protrusion 520 pushes the bottom of the touch display screen 400 to move synchronously, so that the touch display screen 400 rotates about the shaft on the connecting seat 130, and the angle of the touch display screen 400 can be adjusted according to the user's own usage requirements;

[0112] S2, test preparation: the system calibrates the sensor module, initializes the quantum processor, and establishes baseline parameters;

[0113] S3, start detection: the tester stands at the back of the quantum robot, holds both sides of the head 200 with both hands, so that the tactile sensor contacts the palm of the tester. During the detection process, the tester needs to relax, not talk, and keep breathing balanced; the tactile sensor collects environmental data, analyzes it through the neural network module, and the decision module uses quantum logic to evaluate possible operations and select the best option;

[0114] S4, test completion: After the test is completed, the touch screen 400 automatically displays the test record and a report can be obtained;

[0115] S5. Equipment protection: The camera detects when a person approaches and transmits the monitoring data to the control module. The control module receives the data and controls the angle adjustment mechanism 500, the stepper motor 740 and the electric telescopic rod 632 to operate again, so that the mechanical arm 510 drives the touch screen 400 to reset, and the stepper motor 740 drives the baffle 620 to move out of the inner cavity of the upper housing 120. The baffle 620 flips downward by its own gravity until the baffle 620 contacts the rubber ring gasket 410. The output end of the electric telescopic rod 632 drives the positioning block 633 to insert into the inner cavity of the positioning groove 621, so as to lock the baffle 620, so that the baffle 620 can stably cover the surface of the touch screen 400, thereby preventing dust and damage.

[0116] Through the above specific implementations, those skilled in the art can easily implement the present invention. However, it should be understood that the present invention is not limited to the above specific implementations. On the basis of the disclosed implementations, those skilled in the art can arbitrarily combine different technical features to achieve different technical solutions.

Claims

1. A quantum robot with the function of detecting and enhancing magnetization magnetic field, characterized in that: The device comprises a body structure (100), a head (200) is provided on the top of the body structure (100), a base structure (300) is provided on the bottom of the body structure (100), and a touch display screen (400) is provided on the front side of the body structure (100), wherein: The body mechanism (100) is used to provide an installation foundation for the head (200), the base mechanism (300), the touch display screen (400), the angle adjustment mechanism (500), the protection mechanism (600) and the moving mechanism (700); The handpiece (200) is used to measure the frequency and energy of a weak magnetic field; The base mechanism (300) is used to provide a support base for the body mechanism (100) and enable movement; The touch display screen (400) is used for detection information display, human interaction and application control.

2. The quantum robot with the function of detecting and enhancing the magnetization magnetic field according to claim 1, characterized in that: The body structure (100) comprises a lower housing (110), the top of the lower housing (110) is fixedly connected to an upper housing (120), both sides of the upper housing (120) are fixedly connected to a connecting seat (130), the touch display screen (400) is located between the two connecting seats (130), and the connecting seat (130) and the touch display screen (400) are rotatably connected, wherein: The inner cavity of the upper housing (120) is provided with a quantum processor, a high-capacity storage module, a communication module, a neural network module, a decision module, a learning module, a feedback module and a control module; the head (200) is provided with a sensor module; the quantum processor, the high-capacity storage module, the communication module, the neural network module, the decision module, the learning module, the feedback module and the sensor module are electrically connected to the control module respectively; the control module is electrically connected to the touch display screen (400); the inner cavity of the lower housing (110) is provided with a power module electrically connected to the quantum processor, the high-capacity storage module, the communication module, the neural network module, the decision module, the learning module, the feedback module, the control module, the sensor module and the touch display screen (400) respectively; The quantum processor is responsible for executing a quantum algorithm that simulates a complex neural network; The high-capacity storage module is used to store large quantum states and data sets; The communication module is used to allow the quantum processor and each module to communicate with an external system; The neural network module uses quantum enhanced neural network for pattern recognition and learning; The decision module uses quantum logic gates to evaluate multiple outcomes and determine the best path; The learning module is used to connect to cloud-based artificial intelligence resources for continuous updating and learning; The feedback module is used to provide real-time feedback to the artificial intelligence system to achieve adaptive learning; The sensing module is composed of a camera, a microphone and a tactile sensor, and is used to sense the environment; the camera and the microphone are both installed on the head (200); and one tactile sensor is installed on each side of the head (200); The control module is used to manage the motion function and interactive response of the quantum robot; The power module is used to provide power to the quantum processor, the high-capacity storage module, the communication module, the neural network module, the decision module, the learning module, the feedback module, the control module, the sensor module and the touch display screen (400), so as to ensure the operation of each module and the touch display screen (400).

3. The quantum robot with the function of detecting and enhancing the magnetization magnetic field according to claim 2, characterized in that: The base mechanism (300) comprises a chassis (310) fixedly connected to the bottom of the lower housing (110), and a walking mechanism (320) electrically connected to the control module is installed at the bottom of the chassis (310).

4. The quantum robot with the function of detecting and enhancing the magnetization magnetic field according to claim 2, characterized in that: An angle adjustment mechanism (500) for adjusting the tilt angle of the touch display screen (400) is provided on both sides of the upper housing (120); the touch display screen (400) is located between the two angle adjustment mechanisms (500); a protection mechanism (600) for shielding and protecting the touch display screen (400) is also provided on the upper housing (120); and a moving mechanism (700) for driving the protection mechanism (600) to move is provided inside the upper housing (120).

5. The quantum robot with the function of detecting and enhancing the magnetization magnetic field according to claim 4, characterized in that: The angle adjustment mechanism (500) comprises a mechanical arm (510) mounted on the side of the upper housing (120); a free end of the mechanical arm (510) is fixedly connected to a side facing the touch display screen (400) with a protrusion (520); a groove (530) adapted to the protrusion (520) is provided at the bottom of the side of the touch display screen (400); and one end of the protrusion (520) penetrates into the corresponding groove (530).

6. The quantum robot with the function of detecting and enhancing the magnetization magnetic field according to claim 4, characterized in that: The protection mechanism (600) includes a connecting plate (610) movably connected to the upper inner cavity of the upper housing (120), one side of the connecting plate (610) movably penetrates to the outer side of the upper housing (120) and is rotatably connected to a baffle (620), the baffle (620) blocks the surface of the touch display screen (400), and a locking member (630) for positioning the baffle (620) is provided on the connecting plate (610).

7. The quantum robot with the function of detecting and enhancing the magnetization magnetic field according to claim 6, characterized in that: A rubber ring gasket (410) is fixedly connected to the surface of the touch display screen (400), and one side of the rubber ring gasket (410) is in contact with the baffle (620).

8. The quantum robot with the function of detecting and enhancing the magnetization magnetic field according to claim 6, characterized in that: The locking member (630) comprises a through slot (631) formed on the connecting plate (610); a horizontally arranged electric telescopic rod (632) is installed in the inner cavity of the through slot (631); a positioning block (633) is fixedly connected to the output end of the electric telescopic rod (632); a positioning slot (621) adapted to the positioning block (633) is formed on the baffle plate (620); and a side of the positioning block (633) away from the electric telescopic rod (632) penetrates into the inner cavity of the positioning slot (621).

9. The quantum robot with the function of detecting and enhancing the magnetization magnetic field according to claim 6, characterized in that: The moving mechanism (700) comprises a support plate (710) fixedly connected to a side of the connecting plate (610) away from the baffle plate (620); a screw hole (711) is provided in the middle of the surface of the support plate (710); a screw rod (720) arranged horizontally is threadedly connected to the inner cavity of the screw hole (711); one end of the screw rod (720) is rotatably connected to the inner wall surface of the upper housing (120) via a bearing; a support plate (730) is fixedly connected to the inner cavity of the upper housing (120); a stepping motor (740) is installed on the top of the support plate (730); the output shaft of the stepping motor (740) and the other end of the screw rod (720) are both movably penetrated to the outer side of the upper housing (120) and are connected via a transmission member.

10. The quantum robot with the function of detecting and enhancing the magnetization magnetic field according to claim 9, characterized in that: The linkage comprises a driving gear (750) fixedly connected to the output shaft of the stepping motor (740), and one end of the screw rod (720) away from the touch display screen (400) is fixedly connected to a driven gear (760) meshing with the driving gear (750).

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