Syringe special for hypodermic injection based on artificial intelligence

Abstract

The invention discloses an artificial intelligence-based injector special for hypodermic injection, which comprises an injector body, the bottom end of the injector body is fixedly communicated with a needle mechanism, the bottom end of one side of the injector body is fixedly provided with a monitoring mechanism, the top end of one side of the injector body is fixedly provided with a mounting shaft, and one end of the mounting shaft is fixedly provided with a display system. A display system, two detachable needle mechanisms, a needle inserting length monitoring mechanism and a driving mechanism are arranged on one side of the injector body, in the whole injection process, the needle inserting length can be monitored, the needle inserting length can be monitored, the needle inserting length can be monitored, and the needle inserting length can be monitored. The injection time and the injection speed are adjusted in real time, the skin temperature and the length of the needle entering the injection part are synchronously displayed, the needle mechanism is arranged to prevent angle deviation in the injection process, meanwhile, an auxiliary hand for fixing the needle by medical staff is liberated, and the scientificity and the safety of dose adjustment are ensured.

Description

Technical Field

[0001] The present invention relates to the technical field of syringes, and in particular to a syringe dedicated for subcutaneous injection based on artificial intelligence. Background Art

[0002] A syringe is a tool commonly used by doctors when injecting drugs into patients. Its main function is to inject drugs into the patient's body, thereby playing a therapeutic, preventive or diagnostic role. The syringe is easy to use and can quickly and accurately inject drugs into the patient's body, making it more convenient for medical personnel to control the dosage of drugs.

[0003] However, traditional syringes have the following disadvantages:

[0004] Traditional syringes are not equipped with display screens and cannot display existing risks; they are not equipped with detachable needles; they do not have needle insertion length monitoring systems and cannot monitor and warn of the needle insertion length; they do not have power generation modules; they cannot insert the needle at a uniform speed; and they cannot detect pressure during the injection process. Summary of the invention

[0005] The purpose of the present invention is to provide a special syringe for subcutaneous injection based on artificial intelligence, so as to solve the problems mentioned in the above background technology that the traditional syringe is not equipped with a display screen and cannot display the existing risks; is not equipped with a detachable needle; has no needle insertion length monitoring system and cannot monitor and warn the needle insertion length; has no power generation module; cannot insert the needle at a uniform speed; and cannot detect the pressure during the injection process.

[0006] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a special syringe for subcutaneous injection based on artificial intelligence, comprising a syringe body, the bottom end of the syringe body is fixedly connected to a needle mechanism, the bottom end of one side of the syringe body is fixedly installed with a monitoring mechanism, the top end of one side of the syringe body is fixedly installed with a mounting shaft, one end of the mounting shaft is fixedly installed with a display system, the inside of the syringe body is slidably connected with a push rod, the top end of the push rod is fixedly installed with an assembly table, the top end of the assembly table is installed with a driving mechanism, and a plurality of scale lines are provided on the surface of the syringe body.

[0007] As a preferred technical solution of the present invention, the display system includes a machine learning algorithm, a pharmacokinetic module, a touch interface module and a risk module. The machine learning algorithm predicts classification or regression problems by constructing a tree structure, the pharmacokinetic module simulates the flow of drugs in the syringe body, the touch interface module displays the state of the syringe body in real time, and the risk module is a risk model established based on big data analysis.

[0008] As a preferred technical solution of the present invention, the touch-screen interface module includes a push time unit, a push speed unit, a skin temperature display unit and a needle injection unit. The push time unit displays the push time of the syringe body, the push speed unit displays the push speed of the syringe body, the skin temperature display unit synchronously displays the skin temperature of the syringe body, and the needle injection unit displays the length of the needle entering the injection site.

[0009] As a preferred technical solution of the present invention, the risk module includes a color prompt unit and a pop-up prompt unit. The color prompt unit displays the existing risks in real time in a striking color manner to ensure the scientificity and safety of the dosage adjustment. The pop-up prompt unit displays the existing risks in real time in a pop-up prompt manner to ensure the scientificity and safety of the dosage adjustment.

[0010] As a preferred technical solution of the present invention, the monitoring mechanism includes a linear track and a mounting frame, a displacement block is slidably connected to the middle part of the linear track, one side of the displacement block is fixedly connected to one end of the mounting frame, a microcontroller is fixedly installed on the top of the mounting frame, a micro laser ranging sensor is fixedly installed on one side of the mounting frame, and an audible and visual alarm is fixedly installed on the other side of the mounting frame. The displacement block slides along the linear track to adjust the position of the mounting frame. A high-precision micro laser ranging sensor or ultrasonic sensor is used near the special injection needle. The sensor collects data at an extremely high frequency and transmits the measured needle insertion length to the microcontroller in real time. The microcontroller converts the needle insertion length data into intuitive digital and dynamic graphics and displays them on the display screen of the syringe, and compares them with the preset safety length range. Once the needle insertion length reaches or exceeds the safety threshold, the audible and visual alarm is immediately triggered, and the driving mechanism stops the advancement to ensure the safety of the patient.

[0011] As a preferred technical solution of the present invention, one end of the linear track is fixedly connected to the syringe body, and the monitoring mechanism is installed on the syringe body through the linear track.

[0012] As a preferred technical solution of the present invention, the driving mechanism includes a positioning plate and a driving frame, one side of the top of the positioning plate is fixedly connected to the bottom end of the driving frame, one side of the bottom end of the driving frame is rotatably connected to a lead screw, and a micro motor is fixedly installed on the other side of the bottom end of the driving frame, the bottom end of the lead screw is threadedly connected to a lifting shell, and a connector is installed at the bottom end of the lifting shell, a driven gear is fixedly installed on the surface of the lead screw, a driving gear is fixedly installed on the output end of the micro motor, the outer side of the driving gear is meshed and connected with the outer side of the driven gear, a full-bridge rectifier circuit and a voltage stabilizing circuit are respectively fixedly installed on both ends of one side of the driving frame, and a speed sensor is fixedly installed on the surface of the micro motor. When the assembly platform pushes the piston to perform an injection operation by a push rod, the high-performance permanent magnet installed on the piston push rod moves smoothly and efficiently in the multi-layer enameled copper wire coil carefully surrounded by the inner wall of the cylinder body, thereby generating a stable induced electromotive force, and the generated alternating The alternating current is quickly and efficiently converted into pure direct current through a full-bridge rectifier circuit that uses the most advanced semiconductor technology. Subsequently, a carefully designed filter capacitor smoothes the direct current, removes tiny fluctuations and noise, and ensures voltage stability. Finally, a high-precision voltage stabilization circuit precisely adjusts and stabilizes the voltage so that it always remains within the ideal operating voltage range required by the various components of the syringe. The processed electrical energy is preferentially stored in a supercapacitor array with ultra-high charging speed and strong discharge capability. When the supercapacitor array is fully charged, it provides a stable and reliable power supply for the various electronic components and sensors inside the syringe. When the charge in the supercapacitor array drops below the preset threshold, the built-in high-performance backup lithium battery automatically and seamlessly switches power supply, ensuring that the syringe always maintains normal and stable operation throughout the injection process, without being restricted by external power conditions and usage environment.

[0013] As a preferred technical solution of the present invention, the bottom end of the connecting head is connected to the assembly table, the middle part of the positioning plate is fixedly connected to the syringe body, the driving mechanism is installed on the syringe body through the positioning plate, and the driving mechanism is installed on the assembly table through the connecting head.

[0014] As a preferred technical solution of the present invention, the needle mechanism includes a positioning shell and a ball and socket joint connector, the bottom end of the positioning shell is connected to the top end of the ball and socket joint connector, the bottom end of the ball and socket joint connector is installed with a connecting shell, the bottom end of the connecting shell is fixedly connected with a needle body, the surface of the positioning shell is installed with an angle adjustment knob connected to the ball and socket joint connector, the top end of the positioning shell is fixedly connected with the syringe body, the needle mechanism adopts a high-precision ball and socket joint connector and a syringe body, one of which is an ordinary dosing needle for drawing liquid and dispensing medicine, and the other needle is designed with an angle adjustment knob with clear scales and damping feeling, which is convenient for medical staff to accurately adjust the needle angle, and is equipped with a reliable locking screw or button, which firmly fixes the needle after adjusting the angle to prevent angle deviation during injection, and at the same time frees the medical staff's auxiliary hand to fix the needle.

[0015] Compared with the prior art, the beneficial effects of the present invention are: a display system, two detachable needle mechanisms, a monitoring mechanism for the needle insertion length and a driving mechanism are arranged on one side of the syringe body. During the entire injection process, the injection time and injection speed are adjusted in real time, and the skin temperature and the length of the needle entering the injection site are displayed synchronously. The establishment of the needle mechanism prevents angle deviation during the injection process, and at the same time frees the auxiliary hand of the medical staff to fix the needle, thereby ensuring the scientificity and safety of the dosage adjustment. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 is a side view of the present invention;

[0017] Figure 2 It is one of the partial schematic diagrams of the present invention;

[0018] Figure 3 It is a schematic diagram of the structure of the display system of the present invention;

[0019] Figure 4 is a side view of the monitoring mechanism of the present invention;

[0020] Figure 5 is a side view of the driving mechanism of the present invention;

[0021] Figure 6 is a side view of the needle mechanism of the present invention;

[0022] Figure 7 This is the second partial schematic diagram of the present invention;

[0023] Figure 8 It is a partial schematic diagram of the driving mechanism of the present invention.

[0024] In the figure: 1. syringe body; 2. monitoring mechanism; 21. linear track; 22. displacement block; 23. microcontroller; 24. sound and light alarm; 25. mounting bracket; 26. micro laser ranging sensor; 3. display system; 31. machine learning algorithm; 32. pharmacokinetic module; 33. touch interface module; 331. injection time unit; 332. injection speed unit; 333. skin temperature display unit; 334. needle injection unit; 34. risk module; 341. color prompt unit; 342. pop-up prompt Indicator unit; 4. Mounting shaft; 5. Driving mechanism; 501. Positioning plate; 502. Driving frame; 503. Full-bridge rectifier circuit; 504. Voltage stabilizing circuit; 505. Micro motor; 506. Driving gear; 507. Driven gear; 508. Screw rod; 509. Lifting shell; 510. Connector; 511. Speed ​​sensor; 6. Push rod; 7. Assembly table; 8. Scale line; 9. Needle mechanism; 91. Needle body; 92. Ball and socket joint connector; 93. Connecting shell; 94. Positioning shell; 95. Angle adjustment knob. DETAILED DESCRIPTION

[0025] The following will be combined with 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 making creative work are within the scope of protection of the present invention.

[0026] See also Figure 1-8 The present invention provides a syringe for subcutaneous injection based on artificial intelligence, including a syringe body 1, the bottom end of the syringe body 1 is fixedly connected to a needle mechanism 9, the bottom end of one side of the syringe body 1 is fixedly installed with a monitoring mechanism 2, the top end of one side of the syringe body 1 is fixedly installed with a mounting shaft 4, one end of the mounting shaft 4 is fixedly installed with a display system 3, the inside of the syringe body 1 is slidably connected with a push rod 6, the top end of the push rod 6 is fixedly installed with an assembly table 7, the top end of the assembly table 7 is installed with a driving mechanism 5, and the surface of the syringe body 1 is provided with a plurality of scale lines 8.

[0027] The display system 3 includes a machine learning algorithm 31, a pharmacokinetic module 32, a touch interface module 33 and a risk module 34. The machine learning algorithm 31 predicts classification or regression problems by constructing a tree structure. The pharmacokinetic module 32 simulates the flow of drugs in the syringe body 1. The touch interface module 33 displays the status of the syringe body 1 in real time. The risk module 34 is a risk model established based on big data analysis.

[0028] The touch interface module 33 includes a push time unit 331, a push speed unit 332, a skin temperature display unit 333 and a needle injection unit 334. The push time unit 331 displays the push time of the syringe body 1, the push speed unit 332 displays the push speed of the syringe body 1, the skin temperature display unit 333 synchronously displays the skin temperature of the syringe body 1, and the needle injection unit 334 displays the length of the needle entering the injection site.

[0029] The risk module 34 includes a color prompt unit 341 and a pop-up prompt unit 342. The color prompt unit 341 displays the existing risks in real time in eye-catching colors to ensure the scientificity and safety of dosage adjustment. The pop-up prompt unit 342 displays the existing risks in real time in a pop-up prompt to ensure the scientificity and safety of dosage adjustment.

[0030] The monitoring mechanism 2 includes a linear track 21 and a mounting frame 25. A displacement block 22 is slidably connected to the middle of the linear track 21. One side of the displacement block 22 is fixedly connected to one end of the mounting frame 25. A microcontroller 23 is fixedly installed on the top of the mounting frame 25. A micro laser ranging sensor 26 is fixedly installed on one side of the mounting frame 25. An audible and visual alarm 24 is fixedly installed on the other side of the mounting frame 25. The displacement block 22 slides along the linear track 21 to adjust the position of the mounting frame 25. A high-precision micro laser ranging sensor 26 or an ultrasonic sensor is used near the injection needle. The sensor collects data at an extremely high frequency and transmits the measured needle insertion length to the microcontroller 23 in real time. The microcontroller 23 converts the needle insertion length data into intuitive digital and dynamic graphics and displays them on the display screen of the syringe, and compares them with the preset safe length range. Once the needle insertion length reaches or exceeds the safety threshold, the audible and visual alarm 24 is immediately triggered, and the driving mechanism 5 stops the advancement to ensure the safety of the patient.

[0031] One end of the linear track 21 is fixedly connected to the syringe body 1 , and the monitoring mechanism 2 is installed on the syringe body 1 through the linear track 21 .

[0032] The driving mechanism 5 includes a positioning plate 501 and a driving frame 502. One side of the top of the positioning plate 501 is fixedly connected to the bottom of the driving frame 502. One side of the bottom of the driving frame 502 is rotatably connected to a screw rod 508. The other side of the bottom of the driving frame 502 is fixedly installed with a micro motor 505. The bottom end of the screw rod 508 is threadedly connected to a lifting shell 509. The bottom end of the lifting shell 509 is installed with a connector 510. The surface of the screw rod 508 is fixedly installed with a driven gear 507. The output end of the micro motor 505 is fixedly installed with a driven gear 507. A driving gear 506 is fixedly installed, and the outer side of the driving gear 506 is meshed with the outer side of the driven gear 507. The two ends of one side of the driving frame 502 are respectively fixedly installed with a full-bridge rectifier circuit 503 and a voltage stabilizing circuit 504. A speed sensor 511 is fixedly installed on the surface of the micro motor 505. When the assembly table 7 pushes the piston through the push rod 6 to perform the injection operation, the high-performance permanent magnet installed on the piston push rod 6 moves smoothly and efficiently in the multi-layer enameled copper wire coil carefully surrounded by the inner wall of the barrel, thereby A stable induced electromotive force is generated, and the generated alternating current is quickly and efficiently converted into pure direct current through a full-bridge rectifier circuit 503 using the most advanced semiconductor technology. Subsequently, a carefully designed filter capacitor smoothes the direct current, removes tiny fluctuations and noise therein, and ensures voltage stability. Finally, a high-precision voltage stabilization circuit 504 is used to accurately adjust and stabilize the voltage so that it always remains within the ideal operating voltage range required by the various components of the syringe. The processed electrical energy is preferentially stored in a supercapacitor array with ultra-high charging speed and strong discharge capability. When the power in the supercapacitor array is sufficient, a stable and reliable power supply is provided for the various electronic components and sensors inside the syringe. When the power in the supercapacitor array drops below a preset threshold, the built-in high-performance backup lithium battery automatically and seamlessly switches power supply, ensuring that the syringe always maintains normal and stable operation throughout the injection process, without being restricted by external power conditions and usage environment.

[0033] The bottom end of the connector 510 is connected to the assembly table 7 , the middle of the positioning plate 501 is fixedly connected to the syringe body 1 , the drive mechanism 5 is installed on the syringe body 1 through the positioning plate 501 , and the drive mechanism 5 is installed on the assembly table 7 through the connector 510 .

[0034] The needle mechanism 9 includes a positioning shell 94 and a ball and socket joint connector 92. The bottom end of the positioning shell 94 is connected to the top end of the ball and socket joint connector 92. A connecting shell 93 is installed at the bottom end of the ball and socket joint connector 92. The bottom end of the connecting shell 93 is fixedly connected to the needle body 91. An angle adjustment knob 95 connected to the ball and socket joint connector 92 is installed on the surface of the positioning shell 94. The top end of the positioning shell 94 is fixedly connected to the syringe body 1. The needle mechanism 9 adopts a high-precision ball and socket joint connector 92 and a syringe body 1. One of them is an ordinary dosing needle for extracting liquid and dispensing medicine. The other needle is designed with an angle adjustment knob 95 with clear scales and damping feeling, which is convenient for medical staff to accurately adjust the needle angle. It is equipped with a reliable locking screw or button. After the angle is adjusted, the needle is firmly fixed to prevent the angle from shifting during the injection process, while freeing the auxiliary hand of the medical staff to fix the needle.

[0035] In the present invention, a display system 3 is configured on the side of the syringe body 1. Based on the drug characteristic data, an advanced machine learning algorithm 31 and a pharmacokinetic module 32 are used. The touch input interface can be used to adjust the injection time, injection speed, and synchronously display the skin temperature and the length of the needle entering the injection site. Based on rich clinical experience and the patient's special real-time situation, the dosage is manually fine-tuned within the system preset safety range through the touch slider on the operation interface. During the adjustment process, the system will display the existing risks in real time with eye-catching colors and pop-up prompts based on the risk model established by big data analysis to ensure the scientificity and safety of the dosage adjustment. The needle mechanism 9 adopts a high-precision ball and socket joint connector 92 and a syringe body, one of which is a common dosing needle for extracting liquid and dispensing medicine, and the other needle is designed with an angle adjustment knob 95 with clear scales and damping feeling, which is convenient for medical staff to accurately adjust the needle angle. It is equipped with a reliable locking screw or button to firmly fix the needle after adjusting the angle to prevent it from being adjusted during the injection process. The angle is offset, and the auxiliary hand of the medical staff to fix the needle is freed. When the assembly table 7 pushes the piston through the push rod 6 to perform the injection operation, the high-performance permanent magnet installed on the piston push rod 6 moves smoothly and efficiently in the multi-layer enameled copper wire coil carefully surrounded by the inner wall of the barrel, thereby generating a stable induced electromotive force. The generated alternating current will be quickly and efficiently converted into pure direct current through the full-bridge rectifier circuit 503 using the most advanced semiconductor technology. Subsequently, the carefully designed filter capacitor will smooth the direct current, remove the tiny fluctuations and noise therein, and ensure the stability of the voltage. Finally, the voltage is accurately adjusted and stabilized by the high-precision voltage stabilization circuit 504, so that it always remains within the ideal working voltage range required by the various components of the syringe. The processed electrical energy will be preferentially stored in the supercapacitor array with ultra-high charging speed and strong discharge capacity. When the power in the supercapacitor array is sufficient, it provides a stable and reliable power supply for the various electronic components and sensors inside the syringe.When the power in the supercapacitor array drops below the preset threshold, the built-in high-performance backup lithium battery will automatically and seamlessly switch power supply to ensure that the syringe always maintains normal and stable operation during the entire injection process, without being restricted by external power conditions and the use environment. The displacement block 22 slides along the linear track 21 to adjust the position of the mounting frame 25. A high-precision micro laser ranging sensor 26 or ultrasonic sensor is used near the injection needle. The sensor collects data at an extremely high frequency and transmits the measured needle insertion length to the microcontroller 23 in real time. The microcontroller 23 converts the needle insertion length data into intuitive digital and dynamic graphics and displays them on the display screen of the syringe, and compares them with the preset safe length range. Once the needle insertion length reaches or exceeds the safety threshold, the sound and light alarm 24 is immediately triggered, and the driving mechanism 5 stops the advancement to ensure the safety of the patient. Medical staff can easily select the appropriate uniform speed gear according to specific treatment requirements through the comfortable and clearly marked speed adjustment button on the syringe handle. The high-precision micro motor 505 inside the syringe At the moment of receiving the speed instruction, the piston's advancement speed is controlled extremely accurately through the driving gear 506 and the driven gear 507. The speed sensor 511 samples the piston's advancement speed at an ultra-high frequency of up to dozens of times per second, and feeds back the data to the highly intelligent control system at a speed of milliseconds. When the viscosity of the liquid medicine changes due to changes in the drug composition or the resistance changes due to special conditions at the injection site, the control system, with its computing power, quickly and accurately adjusts the output power of the motor in just a few milliseconds to ensure that the injection speed is always stably maintained within the preset uniform speed range, and the error is strictly controlled within an extremely small acceptable range. The pressure sensing detection system, during the entire injection process, the high-sensitivity pressure sensor installed inside the syringe senses every slight change in the injection pressure in real time and accurately at a response speed of microseconds. When the pressure sensor detects that the pressure value exceeds the preset normal range, the intelligent control system will respond quickly within milliseconds, automatically and intelligently adjust the injection speed, or issue a clear and unambiguous alarm through a loud sound and flashing lights;The built-in high-precision liquid level sensor continuously monitors the remaining amount of liquid medicine in real time, and at the critical moment when the liquid medicine is about to run out, it sends timely and accurate reminders to medical staff through the display screen on the syringe and clear audible sound reminders. At the same time, the skin temperature sensing module located near the injection site measures the skin temperature in real time with ultra-high accuracy and frequency. The measured temperature data is not only displayed in real time on the display screen of the syringe in precise digital form, but also clearly indicates whether the temperature is within the normal range through intuitive and easy-to-understand color identification such as green for normal and red for abnormal. Once the skin temperature fluctuates abnormally and exceeds the preset normal range, the system will instantly issue an emergency alarm and automatically record the abnormal data, providing key and valuable data support for subsequent diagnosis and treatment. Before the injection operation begins, the medical staff first ensures that the syringe and the smart wearable bracelet worn by the patient are quickly and stably paired and connected through more efficient and stable wireless connection technology. During the entire injection process, the injection The high-performance communication module inside the injector will accurately obtain the heart rate and blood pressure from the patient's smart wearable bracelet at fixed time intervals (for example, every 5 seconds). These real-time physiological data will be displayed in real time on the high-definition display of the injector in clear and intuitive charts and digital forms, providing clear information for medical staff. The advanced data analysis algorithm inside the system will conduct real-time and in-depth analysis and evaluation of the acquired heart rate and blood pressure data. When any abnormal fluctuations in the patient's heart rate or blood pressure are found, which exceed the preset normal range, the system will immediately issue an urgent and clear alarm through loud sounds, flashing lights and pop-up warning windows, and at the same time display detailed and targeted response measures and suggestions on the display screen, providing timely, accurate and valuable decision support for medical staff. At the same time, the system will conduct a comprehensive and in-depth correlation analysis of the heart rate and blood pressure data obtained from the smart wearable bracelet and other key parameters during the injection process, such as injection dose, speed, remaining amount of liquid medicine and skin temperature.Through complex mathematical models and big data algorithms, the potential correlations and trends between these data are excavated to provide comprehensive, in-depth and multi-dimensional data support and scientific basis for the comprehensive evaluation of the patient's overall treatment effect, physical reaction and potential risks during the injection treatment. Before the patient is about to receive the injection treatment, by scanning the exclusive QR code on the syringe package or downloading a specially developed convenient application in the app store, the patient or his family can easily complete the registration and log in to the personal account. During the entire injection process, the patient or his family can view the detailed progress of the injection treatment in real time through this simple, intuitive and easy-to-operate application installed on the smartphone, including the precise dose already injected, the remaining dose of the liquid medicine and the exact time expected to complete the injection. The interface of the application will clearly and concisely display the name of the drug used, its specific efficacy and any side effects. It will also provide detailed precautions and rehabilitation suggestions after the injection is completed. The patient can view the progress of the injection treatment through the convenient text input box built into the application or the clear and flowing The smooth voice input function allows users to ask questions or give feedback to the medical staff anytime and anywhere about their immediate physical feelings. The medical staff will receive detailed data from the syringe and smart wearable bracelet in real time through the terminal. These data will be displayed in intuitive and clear charts and digital forms. When the system detects any abnormal data, the device will automatically issue an early warning through strong sound prompts, significant color changes, and pop-up warning windows, and highlight the abnormal data to ensure that the medical staff will notice and take appropriate measures at the first time. The medical staff will record the entire process data of each injection treatment through the convenient operation interface on the device, including the name of the medical staff who performed the specific operation and the patient's immediate reaction during the injection process. In complex situations where multidisciplinary team collaboration or remote expert consultation is required, multiple medical staff can view and manage all relevant data of the same patient through a secure network platform at the same time, realizing real-time information sharing and collaborative decision-making, and providing patients with the best and most comprehensive medical services. ;

[0036] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A syringe for subcutaneous injection based on artificial intelligence, comprising a syringe body (1), characterized in that: The bottom end of the syringe body (1) is fixedly connected to a needle mechanism (9), the bottom end of one side of the syringe body (1) is fixedly installed with a monitoring mechanism (2), the top end of one side of the syringe body (1) is fixedly installed with a mounting shaft (4), one end of the mounting shaft (4) is fixedly installed with a display system (3), the inside of the syringe body (1) is slidably connected with a push rod (6), the top end of the push rod (6) is fixedly installed with an assembly table (7), the top end of the assembly table (7) is installed with a driving mechanism (5), and the surface of the syringe body (1) is provided with a plurality of scale lines (8).

2. The artificial intelligence-based subcutaneous injection syringe according to claim 1, characterized in that: The display system (3) includes a machine learning algorithm (31), a pharmacokinetic module (32), a touch interface module (33) and a risk module (34), wherein the machine learning algorithm (31) predicts classification or regression problems by constructing a tree structure, the pharmacokinetic module (32) simulates the flow of drugs in the syringe body (1), the touch interface module (33) displays the state of the syringe body (1) in real time, and the risk module (34) is a risk model established based on big data analysis.

3. The artificial intelligence-based subcutaneous injection syringe according to claim 2, characterized in that: The touch-sensitive interface module (33) comprises a push time unit (331), a push speed unit (332), a skin temperature display unit (333) and a needle injection unit (334); the push time unit (331) displays the push time of the syringe body (1); the push speed unit (332) displays the push speed of the syringe body (1); the skin temperature display unit (333) synchronously displays the skin temperature of the syringe body (1); and the needle injection unit (334) displays the length of the needle entering the injection site.

4. The artificial intelligence-based subcutaneous injection syringe according to claim 2, characterized in that: The risk module (34) includes a color prompt unit (341) and a pop-up prompt unit (342), wherein the color prompt unit (341) displays the existing risks in real time in a striking color manner to ensure the scientificity and safety of the dosage adjustment, and the pop-up prompt unit (342) displays the existing risks in real time in a pop-up prompt manner to ensure the scientificity and safety of the dosage adjustment.

5. The artificial intelligence-based subcutaneous injection syringe according to claim 1, characterized in that: The monitoring mechanism (2) comprises a linear track (21) and a mounting frame (25); a displacement block (22) is slidably connected to the middle of the linear track (21); one side of the displacement block (22) is fixedly connected to one end of the mounting frame (25); a microcontroller (23) is fixedly mounted on the top of the mounting frame (25); a micro laser ranging sensor (26) is fixedly mounted on one side of the mounting frame (25); and an audible and visual alarm (24) is fixedly mounted on the other side of the mounting frame (25).

6. The artificial intelligence-based subcutaneous injection syringe according to claim 5, characterized in that: One end of the linear track (21) is fixedly connected to the syringe body (1).

7. The artificial intelligence-based subcutaneous injection syringe according to claim 1, characterized in that: The driving mechanism (5) comprises a positioning plate (501) and a driving frame (502), one side of the top end of the positioning plate (501) is fixedly connected to the bottom end of the driving frame (502), one side of the bottom end of the driving frame (502) is rotatably connected to a lead screw (508), the other side of the bottom end of the driving frame (502) is fixedly installed with a micro motor (505), the bottom end of the lead screw (508) is threadedly connected to a lifting shell (509), and the bottom end of the lifting shell (509) is installed with a connector (5 10), a driven gear (507) is fixedly mounted on the surface of the lead screw (508), a driving gear (506) is fixedly mounted on the output end of the micro motor (505), the outer side of the driving gear (506) is meshingly connected with the outer side of the driven gear (507), a full-bridge rectifier circuit (503) and a voltage stabilizing circuit (504) are fixedly mounted on both ends of one side of the driving frame (502), and a speed sensor (511) is fixedly mounted on the surface of the micro motor (505).

8. The artificial intelligence-based subcutaneous injection syringe according to claim 7, characterized in that: The bottom end of the connector (510) is connected to the assembly platform (7), and the middle part of the positioning plate (501) is fixedly connected to the syringe body (1).

9. The artificial intelligence-based subcutaneous injection syringe according to claim 1, characterized in that: The needle mechanism (9) comprises a positioning shell (94) and a ball-and-socket joint connecting member (92); the bottom end of the positioning shell (94) is connected to the top end of the ball-and-socket joint connecting member (92); the bottom end of the ball-and-socket joint connecting member (92) is provided with a connecting shell (93); the bottom end of the connecting shell (93) is fixedly connected to a needle body (91); an angle adjustment knob (95) connected to the ball-and-socket joint connecting member (92) is installed on the surface of the positioning shell (94); and the top end of the positioning shell (94) is fixedly connected to a syringe body (1).

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