An endocrine detection device and its detection system based on big data

Abstract

The present invention discloses an endocrine detection device and its detection system based on big data, which relates to the field of endocrine detection. It includes a sample storage box and a sample detector. Inside the sample storage box, there are a temperature control chamber, a sample storage chamber, and a base chamber in sequence from top to bottom. Inside the base chamber, there are multiple linear modules, and the execution end of the linear module is provided with an electromagnetic plate. Inside the sample storage chamber, there are multiple partition plates, and the outer wall of the partition plate is provided with a combined storage component. Inside the temperature control chamber, there is a temperature control component corresponding to the position of the combined storage component; the sample detector includes a base box, a clamping component arranged on the base box, a lifting frame arranged on the base box, multiple sample detectors arranged on the lifting frame, and a self-cleaning sample delivery component arranged on the base box and located between the sample detectors and the clamping component. The present invention is a detection device and system that is convenient for detailed inspection and analysis of samples in different states of patients.

Description

Technical Field

[0001] The present invention mainly relates to the technical field of endocrine detection, and specifically relates to an endocrine detection device and its detection system based on big data. Background Art

[0002] The purpose of endocrine examination is mainly to check whether the functions of various endocrine organs, including the pituitary gland, adrenal gland, thyroid gland, and gonads, are normal. The human samples for endocrine detection mainly include blood, urine, and saliva. When performing endocrine detection, samples in different human states are often required, such as fasting state, pre-meal state, post-meal state, etc.

[0003] According to an endocrine detection system based on the Internet of Things provided in the patent document with the application number CN202010007459.X, the system includes a cloud host 1, a medical analysis terminal 2, a user detection terminal 3, a user mobile terminal 4, and a wearable intelligent device 5; using the Internet of Things technology and combining with current intelligent devices, a detection system specifically for endocrine patients is designed. This system can remotely detect the daily endocrine status and living status of users, suits the characteristics of endocrine diseases, and monitors and reminds patients' daily life; combines spectral detection technology and image detection technology to perform urine tests on patients, and uses spectral detection to calibrate image detection, so as to make the detection results more accurate.

[0004] The system in the above patent is convenient for monitoring and reminding patients' daily life according to the characteristics of endocrine diseases, but it is not convenient for detailed inspection and analysis of samples in different states of patients. Summary of the Invention

[0005] Based on this, the purpose of the present invention is to provide an endocrine detection device and its detection system based on big data to solve the technical problems raised in the above background art.

[0006] To achieve the above purpose, the present invention provides the following technical solution: An endocrine detection device based on big data includes a sample storage box and a sample detector. The sample storage box is sequentially provided with a temperature control cavity, a sample storage cavity, and a base cavity from top to bottom. One end of the sample storage cavity is provided with an opening. In the base cavity, there are multiple linear modules whose execution ends penetrate the base cavity and extend to the sample storage cavity. The execution ends of the linear modules are provided with electromagnetic plates. In the sample storage cavity, multiple partition plates are symmetrically arranged with the linear modules as the axis. The outer walls of the partition plates are provided with combined storage components. In the temperature control cavity, there are temperature control components corresponding to the positions of the combined storage components. The electromagnetic plates are used to transfer sample boxes, and the combined storage components are used to store sample boxes;

[0007] The sample detector includes a base box, a placement rack provided on the side wall of the base box for holding a sample storage box, a top cover provided on the top of the base box, a feed inlet provided on the side wall of the top cover and corresponding to the placement rack, a clamping component provided on the base box for moving the transmission sample box into the feed inlet, a lifting frame provided on the base box, a plurality of sample detectors provided on the lifting frame, and a self-cleaning sample transmission component provided on the base box and located between the sample detector and the clamping component.

[0008] Preferably, the sample box includes a lower box body, a column rod provided at the bottom of the lower box body, an iron plate provided at the bottom of the column rod, an upper box body provided at the top of the lower box body, a round tube provided at the top of the upper box body and communicating with the upper box body, and a rubber plug provided in the round tube. In this preferred embodiment, the sample is collected and stored through the sample box, and at the same time, the detection of the sample is facilitated.

[0009] Preferably, the combined storage component includes a through hole penetrating through the partition board, a moving box slidably connected to the through hole, a semi-circular groove embedded in the outer wall of the moving box for clamping the column rod, a magnetic plate provided on the outer wall of the moving box, two first electromagnetic blocks symmetrically embedded in the outer wall of the partition board with the moving box as the axis of symmetry, and a second electromagnetic block vertically provided in the sample storage cavity and corresponding to the moving box. In this preferred embodiment, it is convenient to fixedly store the sample box containing the sample through the combined storage component.

[0010] Preferably, the temperature control component includes a heat conduction block provided at the top of the inner wall of the sample storage cavity and extending to the temperature control cavity at the top, and a semiconductor refrigeration sheet provided in the temperature control cavity and abutting against the heat conduction block. In this preferred embodiment, it is convenient to adjust the storage temperature of the sample through the temperature control component.

[0011] Preferably, the clamping component includes a driving cylinder horizontally provided on the top of the base box, a cross plate provided at the execution end of the driving cylinder, and a plurality of finger cylinders linearly arranged on the outer wall of the cross plate. In this preferred embodiment, it is convenient to move the sample box unloaded from the sample storage box into the sample detector through the clamping component.

[0012] Preferably, the self-cleaning sample transmission component includes two electric cylinders symmetrically provided on the top of the base box, a slide rail box provided at the execution end of the electric cylinder, two third electromagnetic blocks symmetrically provided at both ends of the inner wall of the slide rail box, a moving rod located between the two slide rail boxes, a plurality of pressurized transmission components linearly arranged on the moving rod, and two cleaning components symmetrically provided at both ends of the slide rail box. Magnetic sliders are respectively provided at both ends of the moving rod, and the magnetic sliders are slidably connected to the slide rail box. In this preferred embodiment, it is convenient to transport the sample in the sample box to the suction inlet of the sample detector through the self-cleaning sample transmission component.

[0013] Preferably, the pressurized conveying assembly includes two positioning blocks symmetrically arranged on both sides of the moving rod, a conveying pipe passing through the positioning blocks, and a pressurizing pipe connected to the outer wall of the conveying pipe through a connecting plate. In this preferred embodiment, the stable transmission of the sample liquid is achieved through the pressurized conveying assembly.

[0014] Preferably, the cleaning assembly includes a positioning plate with two ends respectively connected to the two slide rail boxes, a plurality of C-shaped plates linearly arrayed on the outer wall of the positioning plate, a top pipe arranged at the top of the C-shaped plate and communicating with the C-shaped plate, a negative pressure pipe arranged at the bottom of the C-shaped plate and communicating with the C-shaped plate, an electric control valve with an output end communicating with the top pipe, and a liquid source pipe and a gas source pipe arranged at the input end of the electric control valve. In this preferred embodiment, the cleaning assembly facilitates the cleaning of the sample conveying pipe and the transmission work of multiple samples to be detected.

[0015] According to the above technical solution of an endocrine detection device based on big data, a detection system of an endocrine detection device based on big data will also be provided, including a user terminal, a first sub-control center arranged on the sample storage box, a second sub-control center arranged on the sample detector, and a general control center connected to the user terminal, the first sub-control center, and the second sub-control center through a network;

[0016] The general control center includes a user management module, a sample module, an inspection and analysis module, and a result information collection module. The sample module includes a distribution unit and a sample information recording unit;

[0017] The user terminal includes a user login module, a debit module, a sample information upload module, a reservation detection module, and a result feedback module;

[0018] The distribution unit is used to receive the rental time information of the sample storage box uploaded by the user from the debit module, and bind the sample storage box information with the corresponding number to the corresponding user within the rental time;

[0019] The sample information recording unit is used to receive the sample information uploaded by the user from the sample information upload module, and correspond the sample information with the sample storage information uploaded by the corresponding numbered sample storage box through the first sub-control center to realize the correspondence between the sample information and the sample position;

[0020] The inspection and analysis module is used to receive the reservation detection time period information uploaded by the user from the reservation detection module, and trigger the first sub-control center to move out the sample according to the customer's needs within the detection time period, and trigger the second sub-control center to detect the sample;

[0021] The result information collection module is used to collect the detection result information from the second sub-control center and transmit the detection result information to the result feedback module.

[0022] Preferably, the sample module also includes a sample storage adjustment unit, which is used to receive the sample information uploaded by the user from the sample information upload module, the time node information of the sample storage information uploaded by the first sub-control center, and the scheduled detection time period information uploaded by the user from the scheduled detection module, and send control information to the first sub-control center after analysis, and the first sub-control center adjusts the output power of each temperature control component according to the control information. In this preferred embodiment, the sample storage adjustment unit facilitates intelligent adjustment of the storage conditions according to the sample detection time to achieve energy saving and environmental protection.

[0023] In summary, the present invention mainly has the following beneficial effects:

[0024] The device and system of the present invention facilitate detailed inspection and analysis of samples of patients in different states. In the present invention, the user can debit the sample storage box through the user terminal to collect the samples to be tested in a centralized manner. The sample storage box facilitates stable storage of user samples. After the test time scheduled by the user, the user can place the sample storage box containing the sample in the sample testing machine, and the sample testing machine will test all samples and transmit the tested data to the user terminal, so as to realize the liberalization, convenience and refinement of endocrine testing.

[0025] The sample box is used to collect and store samples, and is also convenient for sample detection. The sample storage box is combined with a storage component to facilitate fixed storage of the sample box containing the sample, and the temperature control component is used to facilitate adjustment of the storage temperature of the sample;

[0026] The clamping component in the sample testing machine facilitates the sample box unloaded from the sample storage box to be moved into the sample testing machine, the self-cleaning sample delivery component facilitates the sample in the sample box to be delivered to the suction port of the sample testing instrument, the booster delivery component realizes the stable delivery of the sample liquid, and the cleaning component facilitates the cleaning of the sample delivery tube, so as to facilitate the delivery of multiple samples to be tested;

[0027] The sample storage adjustment unit facilitates intelligent adjustment of storage conditions according to sample testing time to achieve energy saving and environmental protection. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 It is an axonometric diagram of the overall structure of the present invention;

[0029] Figure 2 An exploded view of the sample storage box structure of the present invention;

[0030] Figure 3Explosion diagram of the combined storage component structure of the present invention;

[0031] Figure 4 Explosion diagram of the sample detector structure of the present invention;

[0032] Figure 5 Axonometric drawing of the self-cleaning sample delivery component structure of the present invention;

[0033] Figure 6 Explosion diagram of the self-cleaning sample delivery component structure of the present invention;

[0034] Figure 7 Cross-sectional view of the overall structure of the present invention;

[0035] Figure 8 Enlarged view of the structure at position A of the present invention;

[0036] Figure 9 Overall system structure framework diagram of the present invention;

[0037] Figure 10 User-end system structure framework diagram of the present invention;

[0038] Figure 11 Overall control center system structure framework diagram of the present invention.

[0039] Description of the drawings: 10. Sample storage box; 101. Temperature control chamber; 102. Sample storage chamber; 1021. Opening; 103. Base chamber; 11. Linear module; 12. Electromagnetic plate; 13. Partition plate; 14. Combined storage component; 141. Through hole; 142. Moving box; 143. Semi-circular groove; 144. Magnetic plate; 145. First electromagnetic block; 146. Second electromagnetic block; 15. Temperature control component; 151. Heat conduction block; 152. Thermoelectric cooler; 16. Sample box; 161. Lower box body; 162. Column rod; 163. Iron plate; 164. Upper box body; 165. Round tube; 166. Rubber plug; 20. Sample detector; 21. Base box; 211. Placing rack; 22. Top cover; 221. Feeding port; 23. Clamping component; 231. Driving cylinder; 232. Cross plate; 233. Finger cylinder; 24. Lifting frame; 25. Sample detector; 26. Self-cleaning sample conveying component; 261. Electric cylinder; 262. Slide rail box; 263. Third electromagnetic block; 264. Moving rod; 265. Boosting conveying assembly; 2651. Positioning block; 2652. Conveying pipe; 2653. Connecting plate; 2654. Boosting pipe; 266. Cleaning assembly; 2661. Positioning plate; 2662. C-shaped plate; 2663. Top pipe; 2664. Electric control valve; 2665. Liquid source pipe; 2666. Gas source pipe; 2667. Negative pressure pipe; 267. Magnetic slider; 30. User terminal; 31. User login module; 32. Debit module; 33. Sample information uploading module; 34. Appointment detection module; 35. Result feedback module; 40. First sub-control center; 50. Second sub-control center; 60. General control center; 61. User management module; 62. Sample module; 621. Distribution unit; 622. Sample information recording unit; 623. Sample storage adjustment unit; 63. Inspection and analysis module; 64. Result information collection module. Detailed implementation manners

[0040] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. The embodiments described below with reference to the accompanying drawings are exemplary and are only used to explain the present invention and should not be construed as a limitation of the present invention.

[0041] Next, the embodiments of the present invention will be described according to the overall structure of the present invention. Embodiment

[0042] Please refer specifically to the attached Figure 1 、 8, as shown in Figures 9, 10, and 11, in a preferred embodiment of the present invention, an endocrine detection device based on big data includes a sample storage box 10 and a sample detector 20. The sample box 16 includes a lower box body 161, a column rod 162 provided at the bottom of the lower box body 161, an iron plate 163 provided at the bottom of the column rod 162, an upper box body 164 provided at the top of the lower box body 161, a round tube 165 provided at the top of the upper box body 164 and communicating with the upper box body 164, and a rubber plug 166 provided in the round tube 165.

[0043] It should be noted that in this embodiment, when a user needs to perform an endocrine detection, the user can log in through the user login module 31 of the user terminal 30, make an appointment for the detection time through the self-booking detection module 34, and submit a debit application for the sample storage box 10 through the debit module 32. The distribution unit 621 can receive the rental time information of the sample storage box 10 uploaded by the user from the debit module 32, and bind the information of the corresponding numbered sample storage box 10 with the corresponding user within the rental time. At this time, the user can go to the nearest network point to borrow the sample storage box 10;

[0044] The general control center 60 can obtain big data information related to endocrine detection from the cloud, so that the user can query matters needing attention for sample collection, sample storage matters, etc. through the user terminal 30;

[0045] Based on the information obtained, the user can collect samples such as blood samples, urine samples, and saliva samples. Before depositing the sample box 16 containing the sample to be detected into the sample storage box 10, the user can describe the sample information through the sample information upload module 33. The sample information recording unit 622 receives the sample information uploaded by the user from the sample information upload module 33, and corresponds the sample information with the sample storage information uploaded by the corresponding numbered sample storage box 10 through the first sub-control center 40 to realize the correspondence between the sample information and the sample location;

[0046] When it reaches the detection time period reserved by the user, the user takes the sample storage box 10 to the sample detector 20 at the nearest network point. The inspection and analysis module 63 receives the reserved detection time period information uploaded by the user from the self-booking detection module 34, and triggers the first sub-control center 40 within the detection time period to realize the removal of the sample, and triggers the second sub-control center 50 to realize the detection of the sample;

[0047] The result information collection module 64 collects the detection result information from the second sub-control center 50 and transmits the detection result information to the result feedback module 35;

[0048] Furthermore, when using the sample box 16, place the sample in the lower box body 161, connect the upper box body 164 with the lower box body 161 to complete the sample collection;

[0049] Further, the sample storage adjustment unit 623 can receive the sample information uploaded by the user from the sample information upload module 33, the time node information of the sample storage information uploaded by the first sub-control center 40, and the reserved detection time period information uploaded by the user from the reserved detection module 34. After analysis, it sends a regulation message to the first sub-control center 40, and the first sub-control center 40 adjusts the output power of each temperature control component 15 according to the regulation message to achieve energy conservation and environmental protection.

[0050] Please refer specifically to Appendix Figure 2 、 3 、as shown in FIG. 7, in another preferred embodiment of the present invention, a temperature control cavity 101, a sample storage cavity 102, and a base cavity 103 are sequentially arranged in the sample storage box 10 from top to bottom. An opening 1021 is provided at one end of the sample storage cavity 102. A plurality of linear modules 11 with the execution ends passing through the base cavity 103 and extending to the sample storage cavity 102 are arranged in the base cavity 103. An electromagnetic plate 12 is provided at the execution end of the linear module 11. A plurality of partition plates 13 symmetrically arranged with the linear module 11 as the axis are provided in the sample storage cavity 102. A combined storage component 14 is provided on the outer wall of the partition plate 13. A temperature control component 15 corresponding to the position of the combined storage component 14 is provided in the temperature control cavity 101. The electromagnetic plate 12 is used to transfer the sample box 16, and the combined storage component 14 is used to store the sample box 16; the combined storage component 14 includes a through hole 141 penetrating through the partition plate 13, a moving box 142 slidably connected to the through hole 141, a semi-circular groove 143 embedded in the outer wall of the moving box 142 and used for clamping the column rod 162, a magnetic plate 144 provided on the outer wall of the moving box 142, two first electromagnetic blocks 145 symmetrically embedded in the outer wall of the partition plate 13 with the moving box 142 as the axis, and a second electromagnetic block 146 vertically arranged in the sample storage cavity 102 and corresponding to the position of the moving box 142. The temperature control component 15 includes a heat conduction block 151 provided at the top of the inner wall of the sample storage cavity 102 and extending to the temperature control cavity 101 at the top, and a semiconductor refrigeration sheet 152 provided in the temperature control cavity 101 and abutted against the heat conduction block 151.

[0051] It should be noted that in this embodiment, when the sample storage box 10 works, the user places the sample box 16 containing the sample on the electromagnetic plate 12. The electromagnetic plate 12 electromagnetically attracts the iron plate 163, and the execution end of the linear module 11 drives the electromagnetic plate 12 to move to the designated storage position. At this time, the combined storage component 14 fixes the sample box 16, and the temperature control component 15 adjusts the temperature of the space where the sample box 16 is located;

[0052] Further, when the combined storage component 14 operates, the second electromagnetic block 146 generates a repulsive force of the same polarity as the magnetic force plate 144, and the first electromagnetic block 145 generates an attractive force of the opposite polarity to the magnetic force plate 144. Under the combined action of the repulsive force and the attractive force, the moving box 142 is driven to move, and the two moving boxes 142 approach each other to clamp the sample box 16 between the two moving boxes 142. The side wall of the semi-circular groove 143 can clamp the column rod 162;

[0053] Further, when the temperature control component 15 operates, the semiconductor refrigeration sheet 152 is energized to refrigerate, and the heat is conducted to the heat conduction block 151 to cool the area where the sample box 16 is located.

[0054] Please refer to the appendix Figure 4 、 5, as shown in Figures 6 and 7, in another preferred embodiment of the present invention, a sample detector 20 includes a base box 21, a placement rack 211 provided on the side wall of the base box 21 for holding the sample storage box 10, a top cover 22 provided on the top of the base box 21, a feed inlet 221 provided on the side wall of the top cover 22 and corresponding to the position of the placement rack 211, a clamping member 23 provided on the base box 21 for moving the transfer sample box 16 into the feed inlet 221, a lifting frame 24 provided on the base box 21, a plurality of sample detectors 25 provided on the lifting frame 24, and a self-cleaning sample transfer member 26 provided on the base box 21 and located between the sample detector 25 and the clamping member 23. The clamping member 23 includes a driving cylinder 231 horizontally provided on the top of the base box 21, a cross plate 232 provided on the execution end of the driving cylinder 231, and a plurality of finger cylinders 233 linearly arrayed on the outer wall of the cross plate 232. The self-cleaning sample transfer member 26 includes two electric cylinders 261 symmetrically provided on the top of the base box 21, a slide rail box 262 provided on the execution end of the electric cylinder 261, two third electromagnetic blocks 263 symmetrically provided at both ends of the inner wall of the slide rail box 262, a moving rod 264 located between the two slide rail boxes 262, a plurality of pressurized delivery components 265 linearly arrayed on the moving rod 264, and two cleaning components 266 symmetrically provided at both ends of the slide rail box 262. Two magnetic sliders 267 are respectively provided at both ends of the moving rod 264, and the magnetic sliders 267 are slidably connected to the slide rail box 262. The pressurized delivery component 265 includes two positioning blocks 2651 symmetrically provided on both sides of the moving rod 264, a delivery pipe 2652 passing through the positioning blocks 2651, and a pressurizing pipe 2654 connected to the outer wall of the delivery pipe 2652 through a connecting plate 2653. The cleaning component 266 includes a positioning plate 2661 with both ends respectively connected to the two slide rail boxes 262, a plurality of C-shaped plates 2662 linearly arrayed on the outer wall of the positioning plate 2661, a top pipe 2663 provided on the top of the C-shaped plate 2662 and communicating with the C-shaped plate 2662, a negative pressure pipe 2667 provided on the bottom of the C-shaped plate 2662 and communicating with the C-shaped plate 2662, an electric control valve 2664 with an output end communicating with the top pipe 2663, and a liquid source pipe 2665 and a gas source pipe 2666 provided on the input end of the electric control valve 2664.

[0055] It should be noted that in this embodiment, when the sample detector 20 is working, the clamping member 23 clamps the sample box 16 unloaded from the opening 1021 of the sample storage box 10 into the top cover 22. The execution end of the electric cylinder 261 drives the slide rail box 262 to descend, so that both the delivery pipe 2652 and the pressurizing pipe 2654 pass through the rubber plug 166 and are inserted into the sample box 16. The air pressure source system connected to the pressurizing pipe 2654 supplies air into the pressurizing pipe 2654, the pressure in the sample box 16 increases, and the sample is transmitted from the bottom to the top of the delivery pipe 2652. The lifting frame 24 drives the sample detector 25 to descend, so that the suction end of the sample detector 25 is connected to the delivery pipe 2652, and the sample detector 25 analyzes the sample. The sample detector 25 can be a blood sample detector, a urine sample detector, or a saliva sample detector;

[0056] After transmitting the sample once, one of the third electromagnetic blocks 263 generates a repulsive force with the same polarity as the magnetic slider 267 at the corresponding position, and the other third electromagnetic block 263 generates an attractive force with the opposite polarity to the magnetic slider 267 at the corresponding position, so as to move the moving rod 264 to move the delivery pipe 2652 that has transmitted the sample into the cleaning component 266 for cleaning work;

[0057] Further, when the clamping member 23 is working, the execution end of the driving cylinder 231 drives the cross plate 232 to move, and the finger cylinder 233 can clamp the column rod 162 of the sample box 16;

[0058] Further, when the cleaning component 266 is working, the liquid source system connected to the liquid source pipe 2665 transports the cleaning liquid into the liquid source pipe 2665. The cleaning liquid flushes the delivery pipe 2652 after passing through the liquid source pipe 2665, the electric control valve 2664, and the top pipe 2663. The waste liquid after flushing is discharged through the negative pressure pipe 2667. The negative pressure pipe 2667 can be connected to the negative pressure system. After the flushing is completed, the electric control valve 2664 switches to connect the air source pipe 2666 and the top pipe 2663. The air source system connected to the air source pipe 2666 inputs dry gas into the air source pipe 2666 to dry the delivery pipe 2652, and the gas passing through the delivery pipe 2652 is discharged through the negative pressure pipe 2667.

[0059] According to the above embodiments, a detection system for an endocrine detection device based on big data will also be provided, including a user terminal 30, a first sub-control center 40 provided on the sample storage box 10, a second sub-control center 50 provided on the sample detector 20, and a general control center 60 connected to the user terminal 30, the first sub-control center 40, and the second sub-control center 50 through a network;

[0060] The general control center 60 includes a user management module 61, a sample module 62, an inspection and analysis module 63, and a result information collection module 64. The sample module 62 includes a distribution unit 621 and a sample information recording unit 622;

[0061] The client 30 includes a user login module 31, a debit module 32, a sample information upload module 33, a reservation detection module 34, and a result feedback module 35;

[0062] The distribution unit 621 is used to receive the rental time information of the sample storage box 10 uploaded by the user from the debit module 32, and bind the information of the corresponding numbered sample storage box 10 with the corresponding user within the rental time;

[0063] The sample information recording unit 622 is used to receive the sample information uploaded by the user from the sample information upload module 33, and correspond the sample information with the sample storage information uploaded by the corresponding numbered sample storage box 10 through the first sub-control center 40 to realize the correspondence between the sample information and the sample location;

[0064] The inspection and analysis module 63 is used to receive the reservation detection time period information uploaded by the user from the reservation detection module 34, and trigger the first sub-control center 40 within the detection time period to realize the removal of the sample, and trigger the second sub-control center 50 to realize the detection of the sample according to the customer requirements;

[0065] The result information collection module 64 is used to collect the detection result information from the second sub-control center 50 and transmit the detection result information to the result feedback module 35. The sample module 62 further includes a sample storage adjustment unit 623. The sample storage adjustment unit 623 is used to receive the sample information uploaded by the user from the sample information upload module 33, the time node information of the sample storage information uploaded by the first sub-control center 40, and the reservation detection time period information uploaded by the user from the reservation detection module 34, and send a regulation information to the first sub-control center 40 after analysis. The first sub-control center 40 adjusts the output power of each temperature control component 15 according to the regulation information.

[0066] The working principle of the present invention is:

[0067] When a user needs to perform an endocrine test, the user can log in through the user login module 31 of the client 30, make a reservation for the test time through the reservation detection module 34 of the user, and apply for the debit of the sample storage box 10 through the debit module 32. The distribution unit 621 can receive the rental time information of the sample storage box 10 uploaded by the user from the debit module 32, and bind the information of the corresponding numbered sample storage box 10 with the corresponding user within the rental time. At this time, the user can go to the nearest network point to borrow the sample storage box 10;

[0068] The total control center 60 can obtain the big data information related to endocrine detection from the cloud, so that the user can query the sample collection precautions, sample storage precautions, etc. through the client 30;

[0069] Based on the information they have, users can collect samples such as blood samples, urine samples, and saliva samples. Before depositing the sample box 16 containing the sample to be tested into the sample storage box 10, users can describe the sample information through the sample information upload module 33. The sample information recording unit 622 receives the sample information uploaded by the user from the sample information upload module 33, and corresponds the sample information with the sample storage information uploaded by the corresponding numbered sample storage box 10 through the first sub-control center 40 to achieve the correspondence between the sample information and the sample location;

[0070] When it reaches the detection time period reserved by the user, the user takes the sample storage box 10 to the sample detector 20 at the nearest network point. The inspection and analysis module 63 receives the reserved detection time period information uploaded by the user from the reservation detection module 34, and triggers the first sub-control center 40 within the detection time period to achieve the removal of the sample, and triggers the second sub-control center 50 to achieve the detection of the sample;

[0071] The result information collection module 64 collects the detection result information from the second sub-control center 50 and transmits the detection result information to the result feedback module 35;

[0072] When using the sample box 16, place the sample in the lower box body 161, connect the upper box body 164 to the lower box body 161 to complete sample collection;

[0073] The sample storage adjustment unit 623 can receive the sample information uploaded by the user from the sample information upload module 33, the time node information of the sample storage information uploaded by the first sub-control center 40, and the reserved detection time period information uploaded by the user from the reservation detection module 34, and send a regulation message to the first sub-control center 40 after analysis. The first sub-control center 40 adjusts the output power of each temperature control component 15 according to the regulation message to achieve energy conservation and environmental protection;

[0074] When the sample storage box 10 is working, the user places the sample box 16 containing the sample on the electromagnetic plate 12. The electromagnetic plate 12 magnetically attracts the iron plate 163. The execution end of the linear module 11 drives the electromagnetic plate 12 to move to the specified storage position. At this time, the combined storage component 14 fixes the sample box 16, and the temperature control component 15 adjusts the temperature of the space where the sample box 16 is located;

[0075] When the combined storage component 14 is working, the second electromagnetic block 146 generates a repulsive force of the same polarity as the magnetic force plate 144, and the first electromagnetic block 145 generates an attractive force of the opposite polarity to the magnetic force plate 144. Under the combined action of the repulsive force and the attractive force, the moving box 142 is driven to move, and the two moving boxes 142 approach each other to clamp the sample box 16 between the two moving boxes 142. The side wall of the semi-circular groove 143 can clamp the column rod 162;

[0076] When the temperature control component 15 works, the semiconductor refrigeration chip 152 is electrified to refrigerate, and the heat is conducted to the heat conduction block 151 to cool the area where the sample box 16 is located;

[0077] When the sample detector 20 works, the clamping component 23 clamps the sample box 16 unloaded from the opening 1021 of the sample storage box 10 into the top cover 22. The execution end of the electric cylinder 261 drives the slide rail box 262 to descend, so that both the delivery pipe 2652 and the pressurization pipe 2654 pass through the rubber plug 166 and are inserted into the sample box 16. The air pressure source system connected to the pressurization pipe 2654 supplies air into the pressurization pipe 2654. The pressure in the sample box 16 increases, and the sample is transmitted from the bottom to the top of the delivery pipe 2652. The lifting frame 24 drives the sample detector 25 to descend, so that the suction end of the sample detector 25 is connected to the delivery pipe 2652. The sample detector 25 analyzes the sample. The sample detector 25 can be a blood sample detector, a urine sample detector, or a saliva sample detector;

[0078] After transmitting a sample once, one of the third electromagnets 263 generates a repulsive force of the same polarity as the magnetic slider 267 at the corresponding position, and the other third electromagnet 263 generates an attractive force of the opposite polarity to the magnetic slider 267 at the corresponding position, so as to move the moving rod 264 to move the delivery pipe 2652 that has transmitted the sample into the cleaning assembly 266 for cleaning work;

[0079] When the clamping component 23 works, the execution end of the driving cylinder 231 drives the cross plate 232 to move, and the finger cylinder 233 can clamp the column rod 162 of the sample box 16;

[0080] When the cleaning assembly 266 works, the liquid source system connected to the liquid source pipe 2665 transports the cleaning liquid into the liquid source pipe 2665. The cleaning liquid flushes the delivery pipe 2652 after passing through the liquid source pipe 2665, the electric control valve 2664, and the top pipe 2663. The waste liquid after flushing is discharged through the negative pressure pipe 2667. The negative pressure pipe 2667 can be connected to the negative pressure system. After the flushing is completed, the electric control valve 2664 switches to connect the air source pipe 2666 to the top pipe 2663. The air source system connected to the air source pipe 2666 inputs dry gas into the air source pipe 2666 to dry the delivery pipe 2652. The gas passing through the delivery pipe 2652 is discharged through the negative pressure pipe 2667.

[0081] Although the embodiments of the present invention have been shown and described, the specific embodiments are only explanations of the present invention and are not limitations on the invention. The specific features, structures, materials, or characteristics described can be combined in a suitable manner in any one or more embodiments or examples. After reading this specification, those skilled in the art can make modifications, substitutions, and variations that do not contribute creatively to the embodiments according to needs, but as long as they are within the scope of the claims of the present invention, they are protected by the patent law.

Claims

1. An endocrine detection device based on big data, comprising a sample storage box (10) and a sample detection machine (20), characterized in that: The sample storage box (10) is provided with a temperature control chamber (101), a sample storage chamber (102) and a base chamber (103) in order from top to bottom; one end of the sample storage chamber (102) is provided with an opening (1021); the base chamber (103) is provided with a plurality of linear modules (11) whose execution ends penetrate through the base chamber (103) and extend to the sample storage chamber (102); the execution ends of the linear modules (11) are provided with electromagnetic plates (12); the sample storage chamber (102) is symmetrically provided with a plurality of partition plates (13) with the linear modules (11) as axes; the outer walls of the partition plates (13) are provided with a combined storage component (14); the temperature control chamber (101) is provided with a temperature control component (15) corresponding to the position of the combined storage component (14); the electromagnetic plates (12) are used to transmit sample boxes (16); and the combined storage component (14) is used to store sample boxes (16); The sample detection machine (20) comprises a base box (21), a placement rack (211) disposed on a side wall of the base box (21) and used for placing a sample storage box (10), a top cover (22) disposed on the top of the base box (21), a feed port (221) disposed on a side wall of the top cover (22) and corresponding to the position of the placement rack (211), a clamping component (23) disposed on the base box (21) and used for moving a sample box (16) from the feed port (221), a lifting rack (24) disposed on the base box (21), a plurality of sample detection instruments (25) disposed on the lifting rack (24), and a plurality of sample detection instruments (25) disposed on the lifting rack (24). A self-cleaning sample delivery component (26) is disposed on a base box (21) and between the sample detector (25) and the clamping component (23); the sample box (16) comprises a lower box body (161), a column (162) disposed at the bottom of the lower box body (161), an iron plate (163) disposed at the bottom of the column (162), an upper box body (164) disposed at the top of the lower box body (161), a round tube (165) disposed at the top of the upper box body (164) and connected to the upper box body (164), and a rubber plug (166) disposed in the round tube (165); the combined storage component (14) comprises a rubber plug (166) disposed in the round tube (165) and a rubber plug (166) disposed in the round tube (165); A through hole (141) of the partition plate (13), a movable box (142) slidably connected to the through hole (141), a semicircular groove (143) embedded in the outer wall of the movable box (142) and used to clamp the column (162), a magnetic plate (144) arranged on the outer wall of the movable box (142), two first electromagnetic blocks (145) symmetrically embedded in the outer wall of the partition plate (13) with the movable box (142) as an axis, and a second electromagnetic block (146) vertically arranged in the sample storage cavity (102) and corresponding to the position of the movable box (142), the self-cleaning sample delivery component (26) includes a symmetrically arranged on the base Two electric cylinders (261) on the top of the box (21), a slide rail box (262) arranged at the execution end of the electric cylinder (261), two third electromagnetic blocks (263) symmetrically arranged at the two ends of the inner wall of the slide rail box (262), a moving rod (264) located between the two slide rail boxes (262), a plurality of booster conveying components (265) arranged in a linear array on the moving rod (264), and two cleaning components (266) symmetrically arranged at the two ends of the slide rail box (262), two magnetic sliders (267) are respectively arranged at the two ends of the moving rod (264), and the magnetic sliders (267) are slidably connected to the slide rail box (262).

2. The endocrine detection device based on big data according to claim 1, characterized in that: The temperature control component (15) comprises a heat conduction block (151) disposed on the top of the inner wall of the sample storage cavity (102) and the top of which extends to the temperature control cavity (101), and a semiconductor cooling plate (152) disposed in the temperature control cavity (101) and abutting against the heat conduction block (151).

3. The endocrine detection device based on big data according to claim 1, characterized in that: The clamping component (23) comprises a driving cylinder (231) horizontally arranged on the top of the base box (21), a horizontal plate (232) arranged on the execution end of the driving cylinder (231), and a plurality of finger cylinders (233) arranged in a linear array on the outer wall of the horizontal plate (232).

4. The endocrine detection device based on big data according to claim 1, characterized in that: The pressurized delivery assembly (265) comprises two positioning blocks (2651) symmetrically arranged on both sides of the moving rod (264), a delivery pipe (2652) passing through the positioning blocks (2651), and a pressurized pipe (2654) connected to the outer wall of the delivery pipe (2652) via a connecting plate (2653).

5. The endocrine detection device based on big data according to claim 1, characterized in that: The cleaning assembly (266) comprises a positioning plate (2661) whose two ends are respectively connected to the two slide rail boxes (262), a plurality of C-shaped plates (2662) arranged in a linear array on the outer wall of the positioning plate (2661), a top pipe (2663) arranged at the top of the C-shaped plate (2662) and connected to the C-shaped plate (2662), a negative pressure pipe (2667) arranged at the bottom of the C-shaped plate (2662) and connected to the C-shaped plate (2662), an electric control valve (2664) whose output end is connected to the top pipe (2663), and a liquid source pipe (2665) and an air source pipe (2666) arranged at the input end of the electric control valve (2664).

6. A detection system, characterized in that: An endocrine detection device based on big data as claimed in any one of claims 1 to 5, further comprising a user terminal (30), a first sub-control center (40) arranged on a sample storage box (10), a second sub-control center (50) arranged on the sample detection machine (20), and a main control center (60) connected to the user terminal (30), the first sub-control center (40) and the second sub-control center (50) via a network; The main control center (60) comprises a user management module (61), a sample module (62), a test analysis module (63) and a result information collection module (64); the sample module (62) comprises a distribution unit (621) and a sample information recording unit (622); The user terminal (30) comprises a user login module (31), a debit module (32), a sample information upload module (33), a test reservation module (34) and a result feedback module (35); The distribution unit (621) is used to receive the rental time information of the sample storage box (10) uploaded by the user from the debit module (32), and bind the information of the sample storage box (10) with the corresponding number to the corresponding user during the rental time; The sample information recording unit (622) is used to receive sample information uploaded by a user from a sample information uploading module (33), and to match the sample information with sample storage information uploaded by a first sub-control center (40) via a corresponding numbered sample storage box (10), so as to achieve a match between the sample information and the sample location; The inspection and analysis module (63) is used to receive the scheduled inspection time period information uploaded by the user from the scheduled inspection module (34), and trigger the first sub-control center (40) to remove the sample and trigger the second sub-control center (50) to detect the sample according to the customer's needs within the inspection time period; The result information collection module (64) is used to collect detection result information from the second sub-control center (50) and transmit the detection result information to the result feedback module (35).

7. A detection system according to claim 6, characterized in that: The sample module (62) further comprises a sample storage adjustment unit (623), the sample storage adjustment unit (623) being used to receive sample information uploaded by a user from the sample information upload module (33), time node information of sample storage information uploaded by the first sub-control center (40), and scheduled detection time period information uploaded by a user from the scheduled detection module (34), and to send control information to the first sub-control center (40) after analysis, and the first sub-control center (40) adjusts the output power of each temperature control component (15) according to the control information.

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