A genetic health management system

Abstract

The present invention provides a gene health management system, which relates to the field of gene health technology. The gene health management probe detection device includes a probe positioning mechanism, which includes a shell one, an arc rod is movably connected inside the shell one, and a sliding plate one is movably connected to the top of the arc rod, and a connecting shaft is fixedly connected to the surface of the sliding plate one, and a sliding shell is slidably connected to the outside of the connecting shaft. The gene health management system, through CPU algorithm calculation, enables the positioning matrix board to detect light and dark stripes, locate the fluorescent sequence of the probe block, reduce the positioning error, so that the sequencing device only needs a one-dimensional moving mechanism to move and scan, determine the gene sequence, and the CPU synchronously analyzes the coordinate system errors generated by the two signals, performs error feedback and compensation, obtains accurate data, and uses the health bracelet system to track human body data in real time while giving reminders to improve the health management effect.

Description

Technical Field

[0001] The present invention relates to the field of gene health technology, and in particular to a gene health management system. Background Art

[0002] The existing genetic health management system has the following problems:

[0003] First, the gene detection device of the prior art uses a reflector to reflect laser light, and moves and scans the probe matrix on the X-axis and Y-axis on a two-dimensional mobile mechanism platform to determine the gene sequence. During the scanning process, the two-dimensional mobile mechanism has high requirements, otherwise errors are prone to occur. In addition, when the probe matrix needs to be positioned, the reflector needs to be focused, which makes the operation cumbersome and has low practicality.

[0004] Second, the gene management system of the prior art has the problem of positioning error when collecting information from gene chips. The system cannot compensate and correct it in time, resulting in errors in the data detected by the gene detection module and inaccurate data processing by the system. At the same time, the existing system does not timely track human data in real time through instruments and provide reminders, resulting in a break in the real-time data chain and an unobvious health management effect.

[0005] To solve the above problems, the inventors provide a gene health management system. Through CPU algorithm calculation, the positioning matrix board can detect light and dark stripes, locate the fluorescent sequence of the probe block, and reduce positioning errors. The sequencing device only needs a one-dimensional moving mechanism to move and scan and determine the gene sequence. The CPU synchronously analyzes the coordinate system errors generated by the two signals, performs error feedback and compensation, obtains accurate data, and uses the health bracelet system to track human body data in real time while providing reminders to improve health management effects. Summary of the invention

[0006] In view of the shortcomings of the prior art, the present invention provides a gene health management system, which has the advantages of high practicality and high reliability, and solves the problems.

[0007] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a gene health management probe detection device, comprising a probe positioning mechanism, the probe positioning mechanism comprising a shell one, the interior of the shell one is movably connected with an arc rod, the top of the arc rod is movably connected with a sliding plate one, the surface of the sliding plate one is fixedly connected with a connecting shaft, the outer side of the connecting shaft is slidably connected with a sliding shell, the top of the sliding shell is fixedly connected with a probe block, the middle of the sliding shell is fixedly connected with a fixed plate, and the interior of the fixed plate is slidably connected with a copper wire assembly.

[0008] Preferably, the bottom end of the shell one is clamped with the cover plate, the top end of the shell one is provided with a through hole, a copper wire assembly is provided inside the through hole, the connecting shaft and the probe block are fixedly connected to the connecting tube, a polystyrene tube is provided outside the copper wire assembly, and copper wire is fixedly connected inside the polystyrene tube. Therefore, through CPU algorithm calculation, the positioning matrix board can detect the equally spaced light and dark stripes reflected by the copper wire assembly on the side of the probe block, locate the fluorescent sequence of the probe block, and reduce the positioning error.

[0009] Preferably, a transmission shock-absorbing mechanism is also included, the transmission shock-absorbing mechanism includes a slide groove, the interior of the slide groove is slidably connected with a fixed block 1, the interior of the fixed block 1 is fixedly connected with a current control block, the interior of the fixed block 1 is fixedly connected with an energized solenoid coil, one end of the energized solenoid coil is fixedly connected with a sliding rod, one end of the sliding rod is threadedly connected with a screw, the outer side of the fixed block 1 is slidably connected with a shock-absorbing shell, the bottom end of the shock-absorbing shell is fixedly connected with a laser emitting device, and the bottom end of the shock-absorbing shell is fixedly connected with a fluorescent photosensor.

[0010] Preferably, the current control block is electrically connected to the electromagnetic device, an electromagnetic variable fluid is arranged inside the shock absorbing shell, the fixed block is electrically connected to the energized coil, a threaded block is arranged at one end of the sliding rod, the screw is transmission-connected to the motor, and the fluorescent photosensitive device is slidingly connected to the guide rod. Therefore, the electromagnetic device is opened by the current control block, which effectively absorbs the vibration when the threaded block and the screw are meshed for transmission, thereby reducing the error when the laser emitting device and the fluorescent photosensitive device are positioned.

[0011] Preferably, a fixing mechanism is also included, which includes an arc-shaped plate, both ends of the arc-shaped plate are rotatably connected to wedge blocks, the surface of the wedge block is slidably connected to a second fixed block, a slide is provided on the lower side of the second fixed block, and the interior of the slide is slidably connected to a positioning matrix plate, so that positioning is effectively performed through the positioning matrix plate.

[0012] Preferably, the second fixing block is fixedly connected to a spring, and the positioning matrix plate is fixedly connected to a pneumatic device.

[0013] Preferably, it further comprises a shell, wherein the interior of the shell is movably connected with a transmission damping mechanism, the interior of the shell is movably connected with a probe positioning mechanism, and the interior of the shell is movably connected with a fixing mechanism.

[0014] A gene health management system, including a system processor, a gene detection module, a gene chip module, a cloud server module, a health bracelet module, and a report analysis module;

[0015] System processor: convert the prepared gene chip data format, store the data into the cloud server, compare the set health data with the gene chip data, and automatically generate an algorithm if the standard is met. According to the physical examination data, the system analyzes various human data, automatically generates an algorithm, matches the health management plan, and transmits the feedback plan data to the health bracelet storage. After the health bracelet completes the test, it converts and transmits the monitoring data to the cloud server, analyzes the data fired by the gene detection module, generates a report, analyzes the data after the physical examination, and transmits the data to the cloud server;

[0016] Gene detection module: CPU starts the motor control program to control the motor. CPU starts the current controller program to move the laser emitting device for initial positioning and positioning of the boundary position of the shell. CPU starts the pneumatic device program synchronously to position the positioning matrix board. The photosensitive device on the positioning matrix board detects the light and dark stripes of the diffracted light field and feeds the detection results back to the CPU for data processing to obtain the initial data and coordinates. After determining that the positioning is completed, the CPU outputs a high level, so that the CPU can derive the formula, that is, ;

[0017] in:

[0018] : radius of the halo;

[0019] : The vertical distance between the laser emission position and the light ring;

[0020] : The horizontal distance between the laser emission position and the light ring;

[0021] : emission angle;

[0022] Calculate the initial coordinates of the photosensitive element and obtain the initial coordinate data. The CPU turns off the current controller 1 and turns on the current controller 2 program. The photosensitive element moves and determines that the photosensitive element moves to the initial coordinate position. The CPU outputs a high level. The CPU turns on the current controller 1 and the current controller 2 synchronously. The laser emitting device moves synchronously with the photosensitive element. The positioning matrix plate photosensitive device and the photosensitive element are synchronously detected. The data is converted into analog quantity and processed by the CPU. The CPU transfers the positioning matrix photosensitive device signal and the photosensitive element signal into the coordinate system production unit so that the photosensitive element is sequenced while moving. The CPU synchronously analyzes the coordinate system error generated by the two signals, and performs error feedback and compensation by adjusting the current controller 1 and the current controller 2 again. After obtaining accurate data, the gene detection ends.

[0023] Gene chip module: prepare personal gene chips based on gene detection data and sequences;

[0024] Cloud server module: stores the data of gene chip, report analysis module and health bracelet module monitoring data, and uploads them to the system processor;

[0025] Health bracelet module: executes the program on the data processed by the system processor and detects the human body. The health bracelet CPU performs real-time data analysis and processing and uploads the data to the cloud server module;

[0026] Report analysis module: Analyzes the data from the genetic testing module and generates reports through algorithms.

[0027] Beneficial Effects

[0028] Compared with the prior art, the present invention provides a gene health management system with the following beneficial effects:

[0029] 1. The gene health management system uses CPU algorithm calculation to enable the fluorescent photosensitive device to quickly locate the position receiving the fluorescent reflection. The positioning matrix board can detect the equally spaced light and dark stripes reflected by the copper wire assembly on the side of the probe block, locate the fluorescent sequence of the probe block, and reduce the positioning error. The sequencing device only needs a one-dimensional moving mechanism to move and scan to determine the gene sequence, reducing errors and vibrations, and greatly improving the practicality and reliability of the equipment.

[0030] 2. The genetic health management system uses the photosensitive device of the positioning matrix board to synchronously detect with the photosensitive element. The photosensitive element performs sequencing while moving. The CPU synchronously analyzes the coordinate system errors generated by the two signals, performs error feedback and compensation, obtains accurate data, and reduces the error when the laser emitting device and the fluorescent photosensitive device are positioned. It is easy to operate and uses the health bracelet system to track human body data in real time while providing reminders to improve the health management effect. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] Figure 1 It is a schematic diagram of the overall structure of the probe positioning mechanism of the present invention;

[0032] Figure 2 It is a schematic diagram of the overall structure of the present invention;

[0033] Figure 3 It is a schematic cross-sectional view of the probe positioning mechanism of the present invention;

[0034] Figure 4 It is a schematic diagram of the structure of the transmission damping mechanism of the present invention;

[0035] Figure 5 For the present invention Figure 2 A schematic diagram of the structure enlargement in the middle;

[0036] Figure 6It is a schematic diagram of the module structure of the present invention;

[0037] Figure 7 It is a schematic diagram of the system flow structure of the present invention;

[0038] Figure 8 This is a schematic diagram of the structure of the gene detection subsystem process of the present invention.

[0039] In the figure: 1. shell; 2. transmission shock absorbing mechanism; 21. slide groove; 22. fixed block 1; 23. current control block; 24. energized spiral coil; 25. sliding rod; 26. screw; 27. shock absorbing shell; 28. laser emitting device; 29. ​​fluorescent photosensor; 3. probe positioning mechanism; 31. shell 1; 32. arc rod; 33. sliding plate 1; 34. connecting shaft; 35. sliding shell; 36. probe block; 37. fixed plate; 38. copper wire assembly; 4. fixing mechanism; 41. arc plate; 42. wedge block; 43. fixed block 2; 44. slideway; 45. positioning matrix board. DETAILED DESCRIPTION

[0040] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0041] Embodiment 1:

[0042] See also Figure 1-8 A gene health management probe detection device includes a probe positioning mechanism 3, the probe positioning mechanism 3 includes a shell 31, the shell 31 is movably connected with an arc rod 32 inside, the top of the arc rod 32 is movably connected with a sliding plate 33, the surface of the sliding plate 33 is fixedly connected with a connecting shaft 34, the outer side of the connecting shaft 34 is slidably connected with a sliding shell 35, the top of the sliding shell 35 is fixedly connected with a probe block 36, the middle of the sliding shell 35 is fixedly connected with a fixing plate 37, and the inside of the fixing plate 37 is slidably connected with a copper wire assembly 3 8. The bottom end of the shell 31 is snap-fitted with the cover plate, the top end of the shell 31 is provided with a through hole, a copper wire assembly 38 is provided inside the through hole, the connecting shaft 34 and the probe block 36 are both fixedly connected to the connecting tube, a polystyrene tube is provided outside the copper wire assembly 38, and a copper wire is fixedly connected inside the polystyrene tube. Therefore, through CPU algorithm calculation, the positioning matrix board 45 can detect the equally spaced light and dark stripes reflected by the copper wire assembly 38 on the side of the probe block 36, locate the fluorescent sequence of the probe block 36, and reduce the positioning error.

[0043] Embodiment 2:

[0044] See also Figure 1-8 A gene health management probe detection device includes a probe positioning mechanism 3, the probe positioning mechanism 3 includes a shell 31, the shell 31 is movably connected with an arc rod 32 inside, the top of the arc rod 32 is movably connected with a sliding plate 33, the surface of the sliding plate 33 is fixedly connected with a connecting shaft 34, the outer side of the connecting shaft 34 is slidably connected with a sliding shell 35, the top of the sliding shell 35 is fixedly connected with a probe block 36, the middle of the sliding shell 35 is fixedly connected with a fixing plate 37, and the inside of the fixing plate 37 is slidably connected with a copper wire assembly 38 The bottom end of the shell 31 is clamped with the cover plate, the top of the shell 31 is provided with a through hole, the inside of the through hole is provided with a copper wire assembly 38, the connecting shaft 34 and the probe block 36 are both fixedly connected to the connecting tube, a polystyrene tube is provided on the outside of the copper wire assembly 38, and the inside of the polystyrene tube is fixedly connected with a copper wire. Therefore, through the CPU algorithm calculation, the positioning matrix board 45 can detect the equally spaced light and dark stripes reflected by the copper wire assembly 38 on the side of the probe block 36, locate the fluorescent sequence of the probe block 36, reduce the positioning error, and also include The transmission damping mechanism 2 includes a slide groove 21, a fixed block 22 is slidably connected inside the slide groove 21, a current control block 23 is fixedly connected inside the fixed block 22, an energized solenoid 24 is fixedly connected inside the fixed block 22, a sliding rod 25 is fixedly connected to one end of the energized solenoid 24, a screw 26 is threadedly connected to one end of the sliding rod 25, a damping shell 27 is slidably connected to the outer side of the fixed block 22, a laser emitting device 28 is fixedly connected to the bottom end of the damping shell 27, and a laser emitting device 28 is fixedly connected to the bottom end of the damping shell 27. A fluorescent photosensitive device 29 is fixedly connected, the current control block 23 is electrically connected to the electromagnetic device, an electromagnetic variable fluid is arranged inside the shock-absorbing shell 27, a fixed block 22 is electrically connected to the energized coil 24, a threaded block is arranged at one end of the sliding rod 25, the screw 26 is connected to the motor transmission, and the fluorescent photosensitive device 29 is slidably connected to the guide rod. Therefore, the electromagnetic device is opened by the current control block 23, which effectively absorbs the vibration when the threaded block and the screw 26 are meshed for transmission, thereby reducing the error when the laser emitting device 28 and the fluorescent photosensitive device 29 are positioned.

[0045] Embodiment three:

[0046] See also Figure 1-8A gene health management probe detection device includes a probe positioning mechanism 3, the probe positioning mechanism 3 includes a shell 31, the shell 31 is movably connected with an arc rod 32 inside, the top of the arc rod 32 is movably connected with a sliding plate 33, the surface of the sliding plate 33 is fixedly connected with a connecting shaft 34, the outer side of the connecting shaft 34 is slidably connected with a sliding shell 35, the top of the sliding shell 35 is fixedly connected with a probe block 36, the middle of the sliding shell 35 is fixedly connected with a fixing plate 37, the inside of the fixing plate 37 is slidably connected with a copper wire assembly 38, the bottom end of the shell 31 is clamped with the cover plate, the top of the shell 31 is provided with a through hole, the inside of the through hole is provided with a copper wire assembly 38, the connecting shaft 34 is connected with the probe block 36, and the connecting shaft 34 is connected with the probe block 36. 6 are all fixedly connected to the connecting tube, a polystyrene tube is arranged outside the copper wire assembly 38, and a copper wire is fixedly connected inside the polystyrene tube. Therefore, through CPU algorithm calculation, the positioning matrix board 45 can detect the equally spaced light and dark stripes reflected by the copper wire assembly 38 on the side of the probe block 36, locate the fluorescence sequence of the probe block 36, and reduce the positioning error. It also includes a transmission damping mechanism 2, and the transmission damping mechanism 2 includes a slide groove 21, and the interior of the slide groove 21 is slidably connected to a fixed block 22, and the interior of the fixed block 22 is fixedly connected to a current control block 23, and the interior of the fixed block 22 is fixedly connected to an energized solenoid 24, and one end of the energized solenoid 24 is fixedly connected to a sliding rod 25 , one end of the sliding rod 25 is threadedly connected with a screw 26, the outer side of the fixed block 22 is slidably connected with a shock-absorbing shell 27, the bottom end of the shock-absorbing shell 27 is fixedly connected with a laser emitting device 28, the bottom end of the shock-absorbing shell 27 is fixedly connected with a fluorescent photosensitive device 29, the current control block 23 is electrically connected to the electromagnetic device, an electromagnetic variable fluid is arranged inside the shock-absorbing shell 27, the fixed block 22 is electrically connected to the energized spiral coil 24, one end of the sliding rod 25 is provided with a threaded block, the screw 26 is connected to the motor transmission, and the fluorescent photosensitive device 29 is slidably connected to the guide rod. Therefore, the electromagnetic device is opened by the current control block 23, which effectively absorbs the vibration when the threaded block and the screw 26 are meshed for transmission, and reduces the vibration between the laser emitting device 28 and the fluorescent photosensitive device 29. The error when the photosensitive device 29 is positioned also includes a fixing mechanism 4, the fixing mechanism 4 includes an arc plate 41, both ends of the arc plate 41 are rotatably connected with a wedge block 42, the surface of the wedge block 42 is slidably connected with a fixed block 2 43, the lower side of the fixed block 2 43 is provided with a slide 44, the inside of the slide 44 is slidably connected with a positioning matrix plate 45, therefore, through the positioning matrix plate 45, the positioning is effectively performed, the fixed block 2 43 is fixedly connected with the spring, the positioning matrix plate 45 is fixedly connected with the pneumatic device, and also includes a shell 1, the inside of the shell 1 is movably connected with a transmission shock absorbing mechanism 2, the inside of the shell 1 is movably connected with a probe positioning mechanism 3, and the inside of the shell 1 is movably connected with a fixing mechanism 4.

[0047] Embodiment 4:

[0048] See also Figure 1-8, a gene health management system, including a system processor, a gene detection module, a gene chip module, a cloud server module, a health bracelet module, and a report analysis module;

[0049] System processor: convert the prepared gene chip data format, store the data into the cloud server, compare the set health data with the gene chip data, and automatically generate an algorithm if the standard is met. According to the physical examination data, the system analyzes various human data, automatically generates an algorithm, matches the health management plan, and transmits the feedback plan data to the health bracelet storage. After the health bracelet completes the test, it converts and transmits the monitoring data to the cloud server, analyzes the data fired by the gene detection module, generates a report, analyzes the data after the physical examination, and transmits the data to the cloud server;

[0050] Gene detection module: CPU starts the motor control program to control the motor. CPU starts the current controller program to move the laser emitting device 28 for initial positioning and to locate the boundary position of the shell 31. CPU starts the pneumatic device program synchronously to locate the positioning matrix board 45. The photosensitive device on the positioning matrix board 45 detects the light and dark stripes of the diffracted light field and feeds the detection results back to the CPU for data processing to obtain the initial data and coordinates. After determining that the positioning is completed, the CPU outputs a high level so that the CPU can derive the formula, i.e. ;

[0051] in:

[0052] : radius of the halo;

[0053] : The vertical distance between the laser emission position and the light ring;

[0054] : The horizontal distance between the laser emission position and the light ring;

[0055] : emission angle;

[0056] Calculate the initial coordinates of the photosensitive element and obtain the initial coordinate data. The CPU turns off the current controller 1 and turns on the current controller 2 program. The photosensitive element moves and determines that the photosensitive element moves to the initial coordinate position. The CPU outputs a high level. The CPU turns on the current controller 1 and the current controller 2 synchronously. The laser emitting device 28 moves synchronously with the photosensitive element. The photosensitive device of the positioning matrix board 45 detects synchronously with the photosensitive element and converts the data into analog quantity. The CPU processes the data. The CPU transfers the positioning matrix photosensitive device signal and the photosensitive element signal into the coordinate system production unit so that the photosensitive element is sequenced while moving. The CPU synchronously analyzes the coordinate system error generated by the two signals, and performs error feedback and compensation by adjusting the current controller 1 and the current controller 2 again. After obtaining accurate data, the gene detection ends.

[0057] Gene chip module: prepare personal gene chips based on gene detection data and sequences;

[0058] Cloud server module: stores the data of gene chip, report analysis module and health bracelet module monitoring data, and uploads them to the system processor;

[0059] Health bracelet module: executes the program on the data processed by the system processor and detects the human body. The health bracelet CPU performs real-time data analysis and processing and uploads the data to the cloud server module;

[0060] Report analysis module: Analyzes the data from the genetic testing module and generates reports through algorithms.

[0061] Working principle: When in use, the motor drives the screw 26 to rotate, and the CPU controls the current control block 23, so that the current control block 23 is opened, and the energized spiral coil 24 is energized through electrical connection. The current of the energized spiral coil 24 increases through the Faraday electromagnetic induction principle. After the energized spiral coil 24 is energized, the single turns of the energized spiral coil 24 are not in contact or insulated. Each turn of the energized spiral coil 24 is equivalent to a circular current, and the current direction in each turn of the coil is the same. According to the mutual attraction of the magnetic field between the currents in the same direction, each turn of the coil attracts the adjacent coils, so the energized spiral coil 24 will shrink as a whole, so that the sliding rod 25 moves in the direction of the screw 26, so that the sliding rod 25 drives the thread block and the screw 26 is meshed, so that the fixed block 22 slides inside the slide groove 21 through the threaded connection, so that the laser emitting device 28 and the fluorescent photosensitive device 29 are moved, which is convenient for positioning and scanning. When the threaded block and the screw 26 are meshed for transmission, the electromagnetic device is turned on by the current control block 23, so that the electromagnetic device generates an induced magnetic field, so that the electromagnetic variable fluid inside the shock-absorbing shell 27 controls the current strength through the current control block 23, and the magnetic field of the electromagnetic device changes, so that the viscosity of the electromagnetic variable fluid changes, and the friction force with the shock-absorbing shell 27 increases, so as to absorb the vibration when the threaded block and the screw 26 are meshed for transmission, and reduce the error when the laser emitting device 28 and the fluorescent photosensitive device 29 are positioned;

[0062] By irradiating the probe block 36 with laser, the fluorescent probe block 36 on the gene chip emits Stokes frequency-shifted light, and the emitted light is collected by the photomultiplier tube on the fluorescent photosensor 29, so as to obtain the information of the microarray chip. When using the probe positioning mechanism 3, the collected probe block 36 matrix is ​​placed into the shell 31, and after being inserted into the cover plate, the cover plate squeezes the arc rod 32, so that the arc rod 32 is forced to squeeze the sliding plate 33, so that the sliding plate 33 drives the connecting shaft 34 to squeeze the connecting tube, so that the sliding plate 33 and the fixed plate 37 move relative to each other, so that the material in the slit inside the probe block 36 is more likely to emit Stokes frequency-shifted light. When the shell 31 is fixed, the arc plate 41 is squeezed, so that the arc plate 41 is squeezed to drive the wedge blocks 42 on both sides to slide, so that the wedge blocks 42 move to push the fixed block 2 43 to move outward, so that the fixed block 2 43 fixes the shell 31, thereby reducing the error. The copper wire assembly 38 is irradiated with laser. Since the polystyrene tube outside the copper wire assembly 38 is light-transmissive, there is transmitted light after being irradiated with laser. The copper wire inside the polystyrene tube is irradiated with laser to produce reflected light. When the diameter of the copper wire is small, equally spaced light and dark stripes can be observed near the brightest point of the halo. The laser emitting device 28 first scans the copper wire assembly 38 on the left side of the shell 31, and the positioning matrix plate 45 is pushed upward by the pneumatic device on the lower side, so that the positioning matrix plate 45 can detect the equally spaced light and dark stripes. Through the CPU algorithm calculation, the fluorescent photosensing device 29 can be quickly positioned to the position receiving the fluorescent reflection. At the same time, when the laser emitting device 28 moves, the copper wire assembly 38 on the side of the probe block 36 is irradiated, and the positioning matrix plate 45 can detect the equally spaced light and dark stripes reflected by the copper wire assembly 38 on the side of the probe block 36, so as to locate the fluorescent sequence of the probe block 36 and reduce the positioning error.

[0063] In summary, the gene health management system, through CPU algorithm calculation, enables the fluorescent photosensing device 29 to quickly locate to the position of receiving fluorescent reflection, and can detect the equally spaced light and dark stripes reflected by the copper wire assembly 38 on the side of the probe block 36 through the positioning matrix board 45, so as to locate the fluorescent sequence of the probe block 36 and reduce the positioning error, so that the sequencing device only needs a one-dimensional moving mechanism to move and scan to determine the gene sequence, thereby reducing errors and vibrations and greatly improving the practicability and reliability of the equipment.

[0064] The gene health management system detects synchronously through the photosensitive device of the positioning matrix board 45 and the photosensitive element. The photosensitive element performs sequencing while moving. The CPU synchronously analyzes the coordinate system errors generated by the two signals, performs error feedback and compensation, obtains accurate data, and reduces the error when the laser emitting device 28 and the fluorescent photosensor device 29 are positioned. The operation is simple and the health bracelet system is used to track human body data in real time while providing reminders to improve the health management effect.

[0065] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A gene health management probe detection device, comprising a probe positioning mechanism (3), characterized in that: The probe positioning mechanism (3) comprises a shell (31), the interior of the shell (31) is movably connected with an arc rod (32), the top of the arc rod (32) is movably connected with a sliding plate (33), the surface of the sliding plate (33) is fixedly connected with a connecting shaft (34), the outer side of the connecting shaft (34) is slidably connected with a sliding shell (35), the top of the sliding shell (35) is fixedly connected with a probe block (36), the middle of the sliding shell (35) is fixedly connected with a fixing plate (37), and the interior of the fixing plate (37) is slidably connected with a copper wire assembly (38); it also comprises a transmission The transmission damping mechanism (2) comprises a slide groove (21), the interior of the slide groove (21) is slidably connected to a fixed block (22), the interior of the fixed block (22) is fixedly connected to a current control block (23), the interior of the fixed block (22) is fixedly connected to an energized solenoid (24), one end of the energized solenoid (24) is fixedly connected to a sliding rod (25), one end of the sliding rod (25) is threadedly connected to a screw (26), the outer side of the fixed block (22) is slidably connected to a damping shell (27), the bottom end of the damping shell (27) is fixedly connected to an excitation The light emitting device (28) is provided, and the bottom end of the shock absorbing shell (27) is fixedly connected with a fluorescent photosensitive device (29); the current control block (23) is electrically connected with the electromagnetic device, an electromagnetic variable fluid is arranged inside the shock absorbing shell (27), the fixed block (22) is electrically connected with the energized spiral coil (24), one end of the sliding rod (25) is provided with a threaded block, the screw rod (26) is connected to the motor in a transmission manner, and the fluorescent photosensitive device (29) is slidably connected with the guide rod; and the fixing mechanism (4) is also included, and the fixing mechanism (4) includes an arc plate (41), and both ends of the arc plate (41) are rotatably connected. A wedge block (42) is connected, the surface of the wedge block (42) is slidably connected to a fixed block 2 (43), a slideway (44) is arranged on the lower side of the fixed block 2 (43), and a positioning matrix plate (45) is slidably connected inside the slideway (44); the fixed block 2 (43) is fixedly connected to a spring, and the positioning matrix plate (45) is fixedly connected to a pneumatic device; and the housing (1) is also included, the interior of the housing (1) is movably connected to a transmission damping mechanism (2), the interior of the housing (1) is movably connected to a probe positioning mechanism (3), and the interior of the housing (1) is movably connected to a fixing mechanism (4).

2. A gene health management probe detection device according to claim 1, characterized in that: The bottom end of the shell one (31) is clamped with the cover plate, the top end of the shell one (31) is provided with a through hole, a copper wire assembly (38) is provided inside the through hole, the connecting shaft (34) and the probe block (36) are both fixedly connected to the connecting pipe, a polystyrene tube is provided outside the copper wire assembly (38), and a copper wire is fixedly connected inside the polystyrene tube.

3. A gene detection system based on the gene health management probe detection device according to claim 1, characterized in that: It includes system processor, gene detection module, gene chip module, cloud server module, health bracelet module and report analysis module; System processor: convert the prepared gene chip data format, store the data into the cloud server, compare the set health data with the gene chip data, and automatically generate an algorithm if the standard is met. According to the physical examination data, the system analyzes various human data, automatically generates an algorithm, matches the health management plan, and transmits the feedback plan data to the health bracelet storage. After the health bracelet completes the test, it converts and transmits the monitoring data to the cloud server, analyzes the data fired by the gene detection module, generates a report, analyzes the data after the physical examination, and transmits the data to the cloud server; Gene detection module: The CPU starts the motor control program to control the motor. The CPU starts the current controller program to move the laser emitting device (28) to perform initial positioning and locate the boundary position of the shell (31). The CPU simultaneously starts the pneumatic device program to position the positioning matrix board (45). The photosensitive device on the positioning matrix board (45) detects the light and dark stripes of the diffracted light field and feeds the detection results back to the CPU for data processing to obtain initial data and coordinates. After determining that the positioning is completed, a high level is output, so that the CPU can derive the formula, that is, in: ρ: radius of the halo; h: vertical distance between the laser emission position and the light ring; L: horizontal distance between the laser emission position and the halo; φ: emission angle; Calculate the initial coordinates of the photosensitive element and obtain the initial coordinate data. The CPU turns off the current controller 1 and turns on the current controller 2 program. The photosensitive element moves and determines that the photosensitive element moves to the initial coordinate position. The CPU outputs a high level. The CPU turns on the current controller 1 and the current controller 2 synchronously. The laser emitting device (28) moves synchronously with the photosensitive element. The photosensitive device of the positioning matrix board (45) detects synchronously with the photosensitive element and converts the data into analog quantity. The CPU processes the data. The CPU transfers the positioning matrix photosensitive device signal and the photosensitive element signal into the coordinate system production unit so that the photosensitive element is sequenced while moving. The CPU synchronously analyzes the coordinate system error generated by the two signals. The CPU performs error feedback and compensation by adjusting the current controller 1 and the current controller 2 again. After obtaining accurate data, the gene detection ends. Gene chip module: prepare personal gene chips based on gene detection data and sequences; Cloud server module: stores the data of gene chip, report analysis module and health bracelet module monitoring data, and uploads them to the system processor; Health bracelet module: executes the program on the data processed by the system processor and detects the human body. The health bracelet CPU performs real-time data analysis and processing and uploads the data to the cloud server module; Report analysis module: Analyzes the data from the genetic testing module and generates reports through algorithms.

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