A clinical pharmacology real-time analysis and detection terminal

Abstract

The present invention provides a clinical pharmacology real-time analysis detection terminal, which belongs to the field of pharmacology analysis and comprises a box assembly, a test analysis assembly and an injection device. The box assembly is a C-shaped structure, the inner side of the C-shape is a test area, the test analysis assembly is placed in the box assembly and correspondingly extends to the test area, the test analysis assembly is slidably placed in the test area, an image identifier is arranged on the inner bottom surface of the box assembly, the injection device is placed on the box assembly, the test analysis assembly moves laterally and translationally along the box assembly, the injection port of the injection device is adjusted up and down relative to the box assembly, an operation panel is arranged on the box assembly, the test analysis assembly is provided with a placement hole, the placement hole corresponds to the image identifier at the bottom, the image identifier corresponds to the placement hole, the pharmacology analysis process can be recorded and checked through image recognition, can be used for the detection of internal impurities, different reactions are carried out through different reagents, and chromatographic analysis is carried out in cooperation with the image identifier.

Description

Technical Field

[0001] The invention provides a clinical pharmacology real-time analysis detection terminal, belonging to the field of pharmacology analysis. Background Art

[0002] At present, drug analysis is an important means of analyzing drug quality, including quality control of the processing process, quality inspection of the drug storage process, clinical drug analysis, in vivo drug analysis, etc. The existing pharmacological analysis cannot form a real-time record of the entire process, and the test samples are limited. It is not possible to quickly perform multiple samples and analysis and testing of different projects. In addition, there is a lack of rapid mixing methods during the addition of monitoring reagents, resulting in low overall detection efficiency and poor accuracy.

[0003] Publication No. CN110890136A discloses a method for pharmacological analysis of traditional Chinese medicine, which is characterized by comprising the following steps: step S1, constructing a network database of traditional Chinese medicine ingredients; step S2, obtaining target proteins; step S3, constructing a compound-target-disease network.

[0004] Publication No. CN107680692A discloses a network pharmacology analysis method for traditional Chinese medicine and traditional Chinese medicine preparations, which includes the following steps: S1, obtaining each source file information of the network pharmacology analysis of traditional Chinese medicine and traditional Chinese medicine preparations; S2, establishing a "chemical components of traditional Chinese medicine preparations / chemical components of traditional Chinese medicine-human proteins / genes-diseases" database based on the intrinsic connection relationship of each source file, and the "chemical components of traditional Chinese medicine preparations / chemical components of traditional Chinese medicine-human proteins / genes-diseases" database includes the toxic and side effects of compounds; S3, constructing a network diagram in Cytoscape software based on the "chemical components of traditional Chinese medicine preparations / chemical components of traditional Chinese medicine-human proteins / genes-diseases" pathway in the established "chemical components of traditional Chinese medicine preparations / chemical components of traditional Chinese medicine, human proteins / genes-diseases" database.

[0005] Publication No. CN214472171U discloses a hospital pharmaceutical pharmacology analysis experimental device, including an operating table, a cleaning table is fixedly arranged on one side of the top of the operating table, a water outlet is fixedly arranged above the cleaning table, a grinding mechanism is fixedly arranged on one side of the cleaning table, the grinding mechanism includes a first side plate and a second side plate, a grinding chamber is fixedly arranged between the first side plate and the second side plate, a cross plate is fixedly arranged above the grinding chamber, a hydraulic push rod is arranged in the middle of the cross plate, a driving motor is fixedly arranged at the bottom end of the hydraulic push rod, a grinding cone is fixedly installed at the output end of the driving motor, first openings are opened on both sides of the operating table, second openings are opened below the first openings on both sides, slide grooves are opened on the inner sides of the first opening and the second opening, and brackets are arranged on both sides of the operating table.

[0006] The above disclosed pharmacological analysis cannot form a rapid mixed test of multiple groups of samples, and cannot form a real-time test record. Summary of the invention

[0007] The present invention provides a clinical pharmacology real-time analysis and detection terminal, which provides a pharmacology analysis and detection terminal that actively adds reagents to drugs, adds them quantitatively, and performs analysis in combination with shaking and heating. The terminal has a simple structure and is easy to use.

[0008] A clinical pharmacology real-time analysis and detection terminal of the present invention is implemented as follows: the clinical pharmacology real-time analysis and detection terminal of the present invention comprises a box assembly, a test analysis assembly, and an injection device. The box assembly is a C-shaped structure, the inner side of the C-shape is a test area, the test analysis assembly is placed in the box assembly and extends to the test area accordingly, the test analysis assembly is slidably placed in the test area, an image identifier is arranged on the inner bottom surface of the box assembly, the injection device is placed on the box assembly and suspended above the test analysis assembly, the test analysis assembly moves laterally and translationally along the box assembly, the injection port of the injection device is adjusted up and down relative to the box assembly, an operation panel is arranged on the box assembly, and adjustment control is formed corresponding to the injection device, the test analysis assembly is provided with a placement hole, the placement hole corresponds to the image identifier at the bottom, the image identifier corresponds to the placement hole, and color recognition is formed, the placement holes on the test analysis assembly are arranged in a matrix, the injection device is provided with a plurality of injection ports, and corresponds to the placement holes on the test analysis assembly, the box assembly is provided with a protective cover for the C-shaped opening, and the protective cover is correspondingly covered and placed on the box assembly;

[0009] The box assembly includes a first shell, a second shell, and a third shell. The first shell is a C-shaped structure and is formed by injection molding. A connecting buckle is arranged on the edge. The second shell is buckled and placed on the back plate of the first shell and is connected and fixed by the connecting buckle. The third shell cover is placed on the top of the first shell and is correspondingly connected to the first shell and the second shell. An inclined surface is arranged on the third shell, and an operation panel is placed on the inclined surface. Control buttons are arranged on the operation panel. Two sets of parallel slide grooves are arranged on the inner bottom surface of the first shell, and the slide grooves extend to the edge position of the first shell. A driving component is arranged in the first shell and corresponds to the slide groove. The driving component pushes the test analysis component to move linearly. A heat dissipation module is arranged on the second shell.

[0010] The test and analysis component includes a supporting tray, a lower plate, a deflection motor, a deflection support rod, and an infrared sensor. The supporting tray is a double-layer structure formed by folding a metal plate, and the lower plate is formed after folding. The deflection motor is placed at the folded position of the supporting tray. Free placement holes are correspondingly arranged on the supporting tray and the lower plate, and the placement hole on the lower plate is smaller than the placement hole on the supporting tray. A side guide frame is arranged at the other end of the supporting tray, and the side guide frame is correspondingly arranged in the sliding part on the first shell and extends into the first shell. A driving arm is arranged on the side guide frame, and the driving arm and the driving component in the first shell form power transmission correspondingly. The deflection support rod is placed on the deflection motor, and a support wheel is arranged on the deflection support rod. A limit plate is arranged on the lower plate, and the limit plate is located at one end of the deflection motor. The length of the deflection support rod is equal to the distance from the axis of the deflection motor to the bottom surface of the first shell. An infrared sensor is arranged on the test and analysis component, and the infrared sensor points to the first shell. The infrared sensor is connected to the controller of the deflection motor to form a control circuit. A moving wheel is arranged at the end of the lower plate, and the moving wheel is correspondingly fitted with the bottom surface of the first shell.

[0011] The driving assembly includes a travel motor, a connector, a lead screw, and an end bearing seat. The stepper motor is placed in the first housing and fixed by screws. One end of the lead screw is placed on the inner arm of the first housing through the end bearing seat, and the other end is connected to the output shaft of the stepper motor through the connector. The lead screw passes through the driving arm and is spirally connected to the driving arm.

[0012] The first housing is provided with a heating plate, and an image processing module is provided in the first housing. The image processing module and the image recognizer 11 are connected correspondingly to form image recognition. The image processing module performs chromatographic analysis on the collected content according to the image recognition. The image processing module is provided with a temperature control component, and the heating plate and the temperature control component are connected to form temperature control of the heating plate.

[0013] The third shell is provided with an injection device, a plurality of reagent boxes are provided in the third shell, the reagent boxes are provided with an injection hole, which penetrates the side wall of the third shell, and the injection device extends into the test area of ​​the first shell. The injection device is provided with a plurality of groups of injection pipes, and a lifting assembly is provided between the injection pipes and the upper shell. The injection pipes are of a dual-channel structure, and a plurality of adjacent injection pipes are a group. The injection pipes of the same group correspond to the same reagent box in the channel, and the other channel is connected to the cleaning box in the third shell. The dual channels of the injection pipes are respectively provided with solenoid valves, which are connected to the injection control module through a data line. The injection control module is placed on the operation panel, and the injection control module is correspondingly connected to the control buttons on the operation panel to form a control command input;

[0014] The injection pipe includes a main body, a side connecting pipe, a first spiral pipe, and a second spiral pipe. The main body is provided with a thread in the middle, and side connecting pipes are provided on both sides of the main body, and are correspondingly connected with the double channels in the main body pipe. The first spiral pipe and the second spiral pipe are placed at the bottom of the main body, and are respectively correspondingly connected with the two channels of the main body. The first spiral pipe and the second spiral pipe are spirally wound, and the diameter of the first spiral pipe is larger than that of the second spiral pipe. The main body is placed on the first housing through a screw motor, and the screw motor is placed on the first housing, and cooperates with the thread on the main body to form a transmission;

[0015] The present invention provides a detection method for a clinical pharmacology real-time analysis detection terminal, and the detection steps are as follows:

[0016] Step 1: Determine the pharmacological analysis reagent, inject the reagent into the reagent box, determine the process medium, and inject the medium into the cleaning box;

[0017] Step 2: The traveling motor drives the tray to move. During the movement, the infrared sensor and the first shell are separated, the deflection motor is started, the deflection motor flips, the deflection support rod flips, and the corresponding support wheel flips to the bottom of the tray to form a support, and the stepper motor moves forward to place the test tube on the tray, and the lower plate body is used to support and fix the test tube, and then the stepper motor reverses to retract the tray into the first shell;

[0018] Step 3: inject the reagent into the test tube through the injection device, move the injection tube up and down, extend it into the test tube, form injection, drive the support plate to move back and forth through the travel motor, and mix the reagents in the test tube;

[0019] Step 4: Measurement and analysis: the color in the test tube is identified by the image recognition device, and the image processing module is used to identify and store the color, abnormal points are prompted and sorted, and the image recognition device is used to obtain real-time images of the test tube;

[0020] Step 5: The heating plate heats and adjusts the temperature of the test area, and the heat dissipation module diffuses the temperature in the box assembly to form a thermal cycle;

[0021] Step 6: Check data feedback to complete the check.

[0022] Beneficial effects:

[0023] 1. Ability to conduct record inspection of pharmacological analysis process through image recognition;

[0024] 2. Simultaneously analyze the different properties of multiple pharmacological agents;

[0025] 3. It can be used to detect internal impurities, perform different reactions through different reagents, and perform chromatographic analysis with image recognition;

[0026] 4. Simple structure and easy to use. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 The present invention is a three-dimensional structural diagram of a clinical pharmacology real-time analysis and detection terminal.

[0028] Figure 2 The present invention is a schematic diagram of the structure of a clinical pharmacology real-time analysis and detection terminal.

[0029] Figure 3 The present invention is a three-dimensional structural diagram of a supporting tray of a clinical pharmacology real-time analysis and detection terminal.

[0030] Figure 4 The present invention discloses a three-dimensional structure of an injection tube of a clinical pharmacology real-time analysis and detection terminal.

[0031] In the attached figure:

[0032] 1. First shell; 2. Second shell; 3. Third shell; 4. Operation panel; 5. Injection device; 6. Protective cover; 7. Support tray; 8. Heat dissipation module; 9. Image processing module; 10. Travel motor; 11. Image identifier; 12. Control valve; 13. Data cable; 14. Injection control module; 15. Reagent box; 16. Injection tube; 17. Lower plate; 18. Side guide frame; 19. Drive arm; 20. Deflection support rod; 21. Limit plate; 22. Deflection motor; 23. Infrared sensor; 24. First spiral tube; 25. Second spiral tube; 26. Threaded tube; 27. Side connecting tube; 28. Internal heating plate. DETAILED DESCRIPTION

[0033] The present invention is further described below in conjunction with the accompanying drawings.

[0034] according to Figure 1-4As shown: A clinical pharmacology real-time analysis detection terminal of the present invention is implemented as follows. A clinical pharmacology real-time analysis detection terminal of the present invention: includes a box assembly, a test analysis assembly, and an injection device 5. The box assembly is a C-shaped structure, and the inner side of the C is a test area. The test analysis assembly is placed in the box assembly and extends to the test area accordingly. The test analysis assembly is slidably placed in the test area. An image identifier 11 is provided on the bottom surface of the box assembly. The injection device 5 is placed on the box assembly and suspended above the test analysis assembly. The test analysis assembly moves laterally and translationally along the box assembly. The injection port of the injection device 5 is adjusted up and down relative to the box assembly. An operation panel 4 is provided on the box assembly, and forms an adjustment control corresponding to the injection device 5. The test analysis assembly is provided with a placement hole, and the placement hole corresponds to the image identifier 11 at the bottom. The image identifier 11 corresponds to the placement hole and forms color recognition. The placement holes on the test analysis assembly are arranged in a matrix. The injection device 5 is provided with a plurality of injection ports, and corresponds to the placement holes on the test analysis assembly. The box assembly is provided with a protective cover 6 for the C-shaped opening, and the protective cover 6 is correspondingly covered and placed on the box assembly;

[0035] The box assembly includes a first shell 1, a second shell 2, and a third shell 3. The first shell 1 is a C-shaped structure and is formed by injection molding. A connecting buckle is arranged on the edge. The second shell 2 is buckled and placed on the back plate of the first shell 1 and is connected and fixed by the connecting buckle. The third shell 3 is covered and placed on the top of the first shell 1 and is correspondingly connected to the first shell 1 and the second shell 2. An inclined surface is arranged on the third shell 3, and an operation panel 4 is placed on the inclined surface. Control buttons are arranged on the operation panel 4. Two sets of parallel slide grooves are arranged on the inner bottom surface of the first shell 1, and the slide grooves extend to the edge position of the first shell 1. A driving component is arranged in the first shell 1 and corresponds to the slide groove. The driving component pushes the test analysis component to move linearly. A heat dissipation module 8 is arranged on the second shell 2.

[0036] The test and analysis assembly includes a supporting tray 7, a lower plate 17, a deflection motor 22, a deflection support rod 20, and an infrared sensor 23. The supporting tray 7 is a double-layer structure formed by folding a metal plate to form a lower plate 17. The deflection motor 22 is placed at the folded position of the supporting tray 7. Free placement holes are correspondingly provided on the supporting tray 7 and the lower plate 17, and the placement hole on the lower plate 17 is smaller than the placement hole on the supporting tray 7. A side guide frame 18 is provided at the other end of the supporting tray 7. The side guide frame 18 is correspondingly placed in the sliding part on the first shell 1 and extends into the first shell 1. A driving arm 19 is provided on the side guide frame 18. The driving arm 19 and The driving assembly in the first shell 1 forms a corresponding power transmission, the deflection support rod 20 is placed on the deflection motor 22, the deflection support rod 20 is provided with a support wheel, a limit plate 21 is provided on the lower plate 17, the limit plate 21 is located at one end of the deflection motor 22, the length of the deflection support rod 20 is equal to the distance from the axis of the deflection motor 22 to the bottom surface of the first shell 1, an infrared sensor 23 is provided on the test and analysis assembly, the infrared sensor 23 points to the first shell 1, the infrared sensor 23 is connected to the controller of the deflection motor 22 to form a control circuit, and a moving wheel is provided at the end of the lower plate 17, and the moving wheel is correspondingly fitted with the bottom surface of the first shell 1;

[0037] The driving assembly includes a traveling motor 10, a connector, a lead screw, and an end bearing seat. The stepping motor is placed in the first housing 1 and fixed by screws. One end of the lead screw is placed on the inner arm of the first housing 1 through the end bearing seat, and the other end is connected to the output shaft of the stepping motor through the connector. The lead screw passes through the driving arm 19 and is spirally connected to the driving arm 19.

[0038] The first housing 1 is provided with a heating plate, and an image processing module 9 is provided in the first housing 1. The image processing module 9 and the image recognizer 11 are connected correspondingly to form image recognition. The image processing module 9 performs chromatographic analysis on the image recognition to collect content. The image processing module 9 is provided with a temperature control component, and the heating plate and the temperature control component are connected to form temperature control of the heating plate;

[0039] The third shell 3 is provided with an injection device 5, and a plurality of reagent boxes 15 are provided in the third shell 3. The reagent box 15 is provided with an injection hole, which passes through the side wall of the third shell 3. The injection device 5 extends into the test area of ​​the first shell 1. The injection device 5 is provided with a plurality of groups of injection pipes 16. A lifting assembly is provided between the injection pipes 16 and the upper shell. The injection pipes 16 are of a dual-channel structure, and a plurality of adjacent injection pipes 16 form a group. The injection pipes 16 of the same group correspond to the same reagent box 15 in the corresponding channel, and the other channel is connected to the cleaning box in the third shell 3. The dual channels of the injection pipes 16 are respectively provided with solenoid valves, which are connected to the injection control module 14 through the data line 13. The injection control module 14 is placed on the operation panel 4, and the injection control module 14 is correspondingly connected to the control buttons on the operation panel 4 to form a control command input;

[0040] The injection pipe 16 includes a main body, a side connecting pipe 27, a first spiral pipe 24, and a second spiral pipe 25. The main body is provided with a thread in the middle, and side connecting pipes 27 are provided on both sides of the main body, and are correspondingly connected to the double channels in the main body pipe. The first spiral pipe 24 and the second spiral pipe 25 are placed at the bottom of the main body, and are respectively connected to the two channels of the main body. The first spiral pipe 24 and the second spiral pipe 25 are spirally wound, and the diameter of the first spiral pipe is larger than the diameter of the second spiral pipe 25. The main body is placed on the first housing 1 through a screw motor, and the screw motor is placed on the first housing 1, and cooperates with the thread on the main body to form a transmission;

[0041] The present invention provides a detection method for a clinical pharmacology real-time analysis detection terminal, and the detection steps are as follows:

[0042] Step 1: determine the pharmacological analysis reagent, inject the reagent into the reagent box 15, determine the process medium, and inject the medium into the cleaning box;

[0043] Step 2: The traveling motor 10 is operated to drive the supporting tray 7 to move. During the movement, the infrared sensor 23 is separated from the first shell 1, and the deflection motor 22 is started. The deflection motor 22 flips, so that the deflection support rod 20 flips, and the corresponding support wheel flips to the bottom of the supporting tray 7 to form a support, and the stepping motor moves forward, the test tube is placed on the supporting tray 7, and the lower plate 17 is used to support and fix the test tube, and then the stepping motor reverses to retract the supporting tray 7 into the first shell 1;

[0044] Step 3: The reagent is injected into the test tube through the injection device 5, and the injection tube 16 moves up and down and extends into the test tube to form injection, and the supporting plate 7 is driven to move back and forth by the travel motor 10 to mix the reagents in the test tube;

[0045] Step 4: Measurement and analysis: the color in the test tube is identified by the image recognition device 11, and the image processing module 9 is used to identify and store the color, and abnormal points are prompted and sorted. The image recognition device 11 is used to obtain real-time images of the test tube;

[0046] Step 5: The heating plate heats the test area to adjust and control the temperature, and the heat dissipation module 8 diffuses the temperature in the box assembly to form a thermal cycle;

[0047] Step 6: Check data feedback to complete the check.

[0048] Further, the reagent is thioacetamide, which is used to determine the heavy metals in the drug. An acetate buffer is provided in the cleaning box, and the control valve corresponding to the injection pipe is adjusted so that thioacetamide and acetate buffer are correspondingly injected into the test tube, and the color is identified by the image recognition device 11 to judge the internal heavy metal content;

[0049] Pb 2+ + Acetate buffer + Thioacetamide (CH3CSNH2) → PbS↓ (yellow / brown-black)

[0050] By comparing the obtained product with the standard reference color standard, the content is identified and tested.

[0051] The present invention and its embodiments are described above, and such description is not restrictive. The drawings show only one embodiment of the present invention, and the actual structure is not limited thereto. In short, if ordinary technicians in the field are inspired by it, without departing from the purpose of the invention, they can design a structure and embodiment similar to the technical solution without creativity, which should belong to the protection scope of the present invention.

Claims

1. A clinical pharmacology real-time analysis and detection terminal, characterized in that: The invention comprises a box assembly, a test analysis assembly, and an injection device (5), wherein the box assembly is a C-shaped structure, the inner side of the C-shape is a test area, the test analysis assembly is placed in the box assembly and extends to the test area, the test analysis assembly is slidably placed in the test area, an image identifier (11) is provided on the bottom surface of the box assembly, the injection device (5) is placed on the box assembly and suspended above the test analysis assembly, the test analysis assembly moves laterally and translationally along the box assembly, the injection port of the injection device (5) is adjusted up and down relative to the box assembly, an operation panel (4) is provided on the box assembly and forms an adjustment control corresponding to the injection device (5), the test analysis assembly is provided with placement holes, the placement holes correspond to the image identifier (11) at the bottom, the image identifier (11) corresponds to the placement holes, and color recognition is formed, the placement holes on the test analysis assembly are arranged in a matrix, the injection device (5) is provided with a plurality of injection ports, and correspond to the placement holes on the test analysis assembly, the box assembly is provided with a protective cover (6) for the C-shaped opening, and the protective cover (6) is correspondingly covered on the box assembly; The box assembly comprises a first shell (1), a second shell (2), and a third shell (3); the first shell (1) is a C-shaped structure and is integrally formed by injection molding, with a connecting buckle provided at the edge; the second shell (2) is buckled and placed on the back plate of the first shell (1) and is connected and fixed by the connecting buckle; the third shell (3) is covered and placed on the top of the first shell (1) and is correspondingly connected to the first shell (1) and the second shell (2); an inclined surface is provided on the third shell (3); an operation panel (4) is placed on the inclined surface; control buttons are provided on the operation panel (4); two sets of parallel slide grooves are provided on the inner bottom surface of the first shell (1), and the slide grooves extend to the edge position of the first shell (1); a driving component is provided in the first shell (1) and corresponds to the slide groove; the driving component pushes the test analysis component to move linearly; and a heat dissipation module (8) is provided on the second shell (2); The test and analysis component comprises a supporting tray (7), a lower plate (17), a deflection motor (22), a deflection support rod (20), and an infrared sensor (23). The supporting tray (7) is a double-layer structure formed by folding a metal plate to form a lower plate (17). The deflection motor (22) is placed at the folded position of the supporting tray (7). Free placement holes are correspondingly provided on the supporting tray (7) and the lower plate (17), and the placement hole on the lower plate (17) is smaller than the placement hole on the supporting tray (7). A side guide frame (18) is provided at the other end of the supporting tray (7). The side guide frame (18) is correspondingly placed in a sliding part on the first shell (1) and extends into the first shell (1). A driving arm (19) is provided on the side guide frame (18). The driving arm (19) is provided on the side guide frame (18). 9) and the driving assembly in the first shell (1) form power transmission correspondingly, the deflection support rod (20) is placed on the deflection motor (22), the deflection support rod (20) is provided with a support wheel, a limit plate (21) is provided on the lower plate (17), the limit plate (21) is located at one end of the deflection motor (22), the length of the deflection support rod (20) is equal to the distance from the axis of the deflection motor (22) to the bottom surface of the first shell (1), an infrared sensor (23) is provided on the test and analysis assembly, the infrared sensor (23) points to the first shell (1), the infrared sensor (23) and the controller of the deflection motor (22) are connected to form a control circuit, and a moving wheel is provided at the end of the lower plate (17), and the moving wheel and the bottom surface of the first shell (1) are correspondingly fitted.

2. A clinical pharmacology real-time analysis and detection terminal according to claim 1, characterized in that: The driving assembly comprises a travel motor (10), a connector, a lead screw, and an end bearing seat. The stepper motor is placed in the first housing (1) and fixed by screws. One end of the lead screw is placed on the inner arm of the first housing (1) through the end bearing seat, and the other end is connected to the output shaft of the stepper motor through the connector. The lead screw passes through the driving arm (19) and is spirally connected to the driving arm (19).

3. A clinical pharmacology real-time analysis and detection terminal according to claim 1, characterized in that: The first shell (1) is provided with a heating plate, the first shell (1) is provided with an image processing module (9), the image processing module (9) and the image recognition device are connected correspondingly to form image recognition, the image processing module (9) performs chromatographic analysis on the collected content according to the image recognition, the image processing module (9) is provided with a temperature control component, the heating plate and the temperature control component are connected to form temperature control of the heating plate.

4. A clinical pharmacology real-time analysis and detection terminal according to claim 1, characterized in that: The third shell (3) is provided with an injection device (5). The third shell (3) is provided with a plurality of reagent boxes (15). The reagent boxes (15) are provided with injection holes that penetrate the side wall of the third shell (3). The injection device (5) extends into the test area of ​​the first shell (1). The injection device (5) is provided with a plurality of groups of injection pipes (16). A lifting assembly is provided between the injection pipes (16) and the upper shell. The injection pipes (16) are of a dual-channel structure, and a plurality of adjacent injection pipes (16) form a group. The injection pipes (16) of the same group have corresponding channels connected to the same reagent box (15). The other channel is connected to a cleaning box in the third shell (3). The dual channels of the injection pipes (16) are respectively provided with solenoid valves. The solenoid valves are connected to an injection control module (14) via a data line (13). The injection control module (14) is placed on an operation panel (4). The injection control module (14) and the control buttons on the operation panel (4) are connected to form a control command input.

5. A clinical pharmacology real-time analysis and detection terminal according to claim 4, characterized in that: The injection pipe (16) comprises a main body, a side connecting pipe (27), a first spiral pipe (24), and a second spiral pipe (25). The middle of the main body is provided with a thread. Side connecting pipes (27) are provided on both sides of the main body and are correspondingly connected to the double channels in the main body. The first spiral pipe (24) and the second spiral pipe (25) are arranged at the bottom of the main body and are correspondingly connected to the two channels of the main body respectively. The first spiral pipe (24) and the second spiral pipe (25) are spirally wound. The diameter of the first spiral pipe is larger than that of the second spiral pipe (25). The main body is placed on the first housing (1) via a screw motor. The screw motor is placed on the first housing (1) and cooperates with the thread on the main body to form a transmission.

6. A detection method for a clinical pharmacology real-time analysis detection terminal according to any one of claims 1 to 5, wherein the detection steps are as follows: Step 1: determine the pharmacological analysis reagent, inject the reagent into the reagent box (15), determine the process medium, and inject the medium into the cleaning box; Step 2: The traveling motor (10) is operated to drive the supporting tray (7) to move. During the movement, the infrared sensor (23) and the first shell (1) are separated, and the deflection motor (22) is started. The deflection motor (22) flips, causing the deflection support rod (20) to flip, and the corresponding support wheel to flip to the bottom of the supporting tray (7) to form a support. The stepper motor moves forward, and the test tube is placed on the supporting tray (7). The lower plate (17) supports and fixes the test tube, and then the stepper motor reverses to retract the supporting tray (7) into the first shell (1); Step 3: injecting the reagent into the test tube through the injection device (5), moving the injection tube (16) up and down and extending into the test tube to form injection, driving the support plate (7) to move back and forth through the travel motor (10), and mixing the reagents in the test tube; Step 4: measurement and analysis, identifying the color in the test tube through the image recognition device (11), and identifying and storing it through the image processing module (9), prompting and sorting abnormal points, and obtaining real-time images of the test tube through the image recognition device (11); Step 5: The heating plate is heated to adjust and control the temperature of the test area, and the heat dissipation module (8) diffuses the temperature in the box assembly to form a thermal cycle; Step 6: Check data feedback to complete the check.

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