Enzyme electrode method efficient blood glucose measuring device for real-time monitoring of diabetes mellitus

Abstract

The invention discloses an enzyme electrode method efficient blood glucose measuring device for real-time monitoring of diabetes, and relates to the technical field of blood glucose detection. The enzyme electrode method efficient blood glucose measuring device for real-time monitoring of diabetes mellitus comprises a detection box main body, a detection cavity is formed in the detection box main body, a detection opening used for stretching of the arm of a patient is formed in one side of the detection box main body, and a placement module is arranged in the detection cavity and used for bearing the arm, stretching into the detection opening, of the patient; a pressing limiting structure is arranged at the upper end of the placement module, and the bottom of the detection box main body is hollow and is provided with a supporting unit capable of being quickly opened and closed. According to the blood glucose measuring device, the blood sampling mode of the vein blood vessel of the arm of a patient is adopted to replace fingertip blood sampling, blood sampling obtained through fingertip blood sampling is capillary whole blood and contains tissue fluid, the measuring result is lower than the actual value, and the effect of venous blood sampled through the vein blood vessel is more accurate; the system is more suitable for real-time monitoring of patients in daily life.

Description

Technical Field

[0001] The invention relates to the technical field of blood sugar detection, in particular to an enzyme electrode method high-efficiency blood sugar measuring device for real-time monitoring of diabetes. Background Art

[0002] Enzyme electrode biosensor is a composite sensor that combines biologically active enzymes with electrochemical electrodes. The determination process converts the measured enzyme reaction substrate into a product that the electrochemical electrode responds to through an enzymatic catalytic reaction. The concentration data of the enzyme reaction substrate is finally obtained by measuring the response current of the electrochemical electrode. Since the advent of enzyme electrodes in the 1960s, biosensors have made great progress and have become an increasingly important component of enzyme analysis. The emergence of biosensors is the product of the cross-penetration of multiple disciplines such as biology, medicine, electrochemistry, thermodynamics, optics and electronic technology. It has the characteristics of high selectivity, fast analysis speed, simple operation and low price. It has been widely used in industrial and agricultural production, environmental protection, food industry, medical diagnosis and other fields. The enzyme electrode biosensor is applied to blood sugar detection, and the detection results are more accurate. At the same time, since the activity of the enzyme electrode changes very little in a short time (several minutes to tens of minutes), it can be used to detect the blood sugar concentration in the human body. Specifically, when working, when detecting the measured blood sample, the concentration of the measured blood sample is calculated based on the measured enzyme electrode response current and compared with the standard sample.

[0003] For example, a continuous blood glucose detection device based on an enzyme electrode biosensor with Chinese patent publication number CN118130582A, the detection device is provided with a continuous blood glucose detection mechanism in the detection device body, the continuous blood glucose detection mechanism comprising: a detection mechanism receiving seat; a detection mechanism working groove provided in the detection mechanism receiving seat; a sample insertion component provided in the detection mechanism working groove; an insertion component purification mechanism provided in the detection mechanism working groove; an embodiment of the present invention is provided with a sample insertion component, the sample insertion component cooperates with the insertion component purification mechanism for purifying the sample insertion component to prevent impurities or contaminants from affecting the sensitivity of the sample insertion component, so that the present application can realize continuous detection of blood glucose concentration.

[0004] The following technical issues exist: The detection method of this detection equipment is mainly through drawing blood from the patient's fingertips. Because the blood drawn from the fingertips is whole capillary blood and contains tissue fluid, the measurement result is slightly lower than the actual value. Therefore, the blood sugar measurement result is lower than the actual result, so there is a certain deviation in the detection effect. Summary of the invention

[0005] In view of the deficiencies of the prior art, the present invention provides an enzyme electrode method high-efficiency blood sugar measuring device for real-time monitoring of diabetes, which solves the problems raised in the above-mentioned background technology.

[0006] To achieve the above objectives, the present invention is implemented through the following technical solutions: an enzyme electrode method high-efficiency blood glucose measuring device for real-time monitoring of diabetes, comprising a detection box main body, a detection chamber is arranged in the detection box main body, a detection opening for the patient's arm to be extended is arranged on one side of the detection box main body, a placement module is arranged in the detection chamber to receive the patient's arm extended through the detection opening, a pressing limit structure is arranged on the upper end of the placement module, and the bottom of the detection box main body is arranged to be hollow and equipped with a quick-opening and closing support unit. It should be noted that, in contrast to the prior art, the present blood glucose measuring device adopts the method of drawing blood from the patient's arm veins instead of drawing blood from the fingertips, because the blood drawn from the fingertips obtains capillary whole blood and contains tissue fluid, and the measurement result is slightly lower than the actual value, while the venous blood taken from the venous blood vessels is more accurate and more suitable for real-time monitoring of patients in daily life.

[0007] A further improvement of the technical solution of the present invention is that the placement module includes a receiving seat arranged at the bottom of the detection chamber. In order to improve the load-bearing stability, the receiving seat is semi-arc-shaped as a whole and is used to wrap the patient's arm. Mounting blocks are symmetrically arranged at both ends of the receiving seat, and a guide rod is arranged between the two groups of mounting blocks on the same side. A concave placement seat is symmetrically arranged at the front and rear ends of the two guide rods. The receiving seat is provided with a detection slot located between the two groups of placement seats, and a detection sensor for detection is arranged in the detection slot. The test paper in the detection slot is replaced by a paper feeding structure. As shown in the accompanying drawings, the paper feeding structure is intended to gradually transfer multiple test papers into the detection slot, thereby avoiding manual replacement of the test paper in the detection slot. A pressing needle is arranged inside the detection slot to achieve the purpose of blood collection.

[0008] A further improvement of the technical solution of the present invention is that: there is a buffer gap between the two ends of the bottom of the placement seat and the receiving seat, and the buffer gap is filled with an airbag. The airbag can provide a certain buffer while avoiding excessive blockage of the veins, and a sliding groove is provided in the middle of the receiving seat, and damping rods fixedly connected to the receiving seat are arranged in an array above the sliding groove, and an extension plate is fixedly connected to one end of the damping rod away from the receiving seat, and the other end of the extension plate is fixed to the bottom of the corresponding receiving seat.

[0009] A further improvement of the technical solution of the present invention is that after the measurement of each patient is completed, the pressing limit structure above the receiving seat needs to reset itself to ensure the convenience of subsequent measurements. Therefore, a pressure seat is arranged above the receiving seat, and connecting blocks are symmetrically welded on the four sides of the pressure seat. Each of the connecting blocks is provided with a vertical rod whose other end is fixedly installed at the bottom of the detection chamber. A hanging rod fixedly connected to the top of the detection box body is arranged on the top of the pressure seat, and a reset spring is fixedly sleeved between the hanging rod and the pressure seat.

[0010] A further improvement of the technical solution of the present invention is that: a rack for lifting is welded on one side of the pressure seat, the rack is meshed with a gear arranged on one side, the gear is connected to a driving shaft through a connecting key, and the driving shaft is connected to a stepper motor through a coupling. Because the stepper motor is arranged inside the main body of the detection box, the start and stop of the stepper motor need to be controlled by a control component arranged in the main body of the detection box, and connecting rods are rotatably installed at both ends of the driving shaft, the other ends of the two connecting rods are welded to the receiving seat, and the two connecting rods are provided with adjustment slots, and monitoring components are installed in the two adjustment slots. The two monitoring components are connected by wires, and the observation areas of the two monitoring components correspond to two placement seats respectively. Furthermore, the monitoring range of one monitoring component is between the patient's elbow joint and the arm, and the monitoring range of the other monitoring component is between the patient's elbow joint and the palm. Therefore, after receiving the start signal, the stepper motor stops according to the electrical signal sent by the monitoring component monitoring the elbow joint and the palm. The reason is that the front end of the arm is thin and the back end is thick. Therefore, when the monitoring component monitoring the elbow joint and the palm finds that the upper limit plate causes the arm to deform, it means that a compression state is formed, and the stepper motor stops.

[0011] A further improvement of the technical solution of the present invention is that one end of the hanging rod away from the top of the detection box body passes through the pressure seat and is fixedly connected to an upper limit plate, the upper limit plate is concave, and the upper limit plate and the placement seat form a pressing limit structure.

[0012] A further improvement of the technical solution of the present invention lies in that the above-mentioned blood glucose measurement is intended to be carried out inside the main body of the detection box. Although the accuracy of the measurement is guaranteed to a certain extent, the closed structure affects the measurement efficiency to a certain extent. Therefore, the detection module also has another open measurement structure for real-time monitoring. The open measurement structure includes a column located at the bottom of the receiving seat and fixedly installed, and a universal joint for the movement of the detection box main body is fixedly arranged at the bottom of the column. The bottom of the universal joint is movably connected to a matching engaging socket, and a direction rod body is fixedly arranged at the bottom of the engaging socket, and a sleeve is welded at the bottom of the direction rod body. A rotatably connected fixed rod is arranged in the sleeve, and hinge rods sleeved thereon are arranged at both ends of the fixed rod.

[0013] A further improvement of the technical solution of the present invention is that: the other ends of the two hinge rods are hinged with a hinge shaft limited in two groups of protruding blocks, the two protruding blocks are welded to one side of a clamping seat, and the other end of the clamping seat is provided with a recess for limiting the edge of the desktop, the top of the clamping seat is threadedly connected to a clamping screw through an internal thread, and the bottom of the clamping screw is connected to a clamping plate located in the recess through a bearing, and a plurality of friction patterns are arranged in an array on the clamping plate. When the placement module of this embodiment is not in the main structure of the closed detection box, an open detection method is still provided, and the multi-directional angle conversion of the receiving seat is realized by the universal joint in the open measuring structure. Conversely, the bottom sleeve is rotated on the fixed rod to change the overall angle of the receiving seat, which facilitates the placement of the patient's arm on the receiving seat, thereby achieving the effect of venous blood testing.

[0014] A further improvement of the technical solution of the present invention is that: the supporting unit includes a rotating shaft located at one end of the main body of the detection box, and transfer blocks are symmetrically distributed at both ends of the rotating shaft, a rotating wheel 1 is arranged in the middle of the rotating shaft, and an opening and closing leg 1 for support is arranged on one side of the rotating wheel 1, a horizontal axis is arranged in the non-circular area of ​​the rotating wheel 1, the horizontal axis passes through the rotating wheel 1 and has transverse connecting plates symmetrically arranged at both ends, a base is arranged at the other end of the two transverse connecting plates, and a bending plate is symmetrically arranged at one end of the base away from the transverse connecting plate, and the other end of each bending plate is connected to the rotating wheel 2 through a hinge shaft.

[0015] A further improvement of the technical solution of the present invention is that: the rotating shaft is fixedly installed in the groove of the detection box body, the rotating shaft is connected with the limit position of the transfer block, and the rotating wheel 1 rotates on the rotating shaft, the rotating wheel 1 is plugged with the horizontal axis limit position, the two horizontal connecting plates are connected with the horizontal axis limit position, the other ends of the two horizontal connecting plates are welded to the base, the base is fixedly connected to the two bending plates, the two bending plates are connected to the rotating wheel 2 through the corresponding hinge shafts, the rotating wheel 1 is welded with the opening and closing leg 1, and the two rotating wheels 2 are fixedly connected with the opening and closing leg 2 for support, and the two A traction connecting plate for simultaneous movement is provided at the bottom of each of the two opening and closing legs, and the traction connecting plate is respectively welded to the two opening and closing legs, and the two rotating wheels are rotatably connected to the main body of the detection box. Therefore, in summary, the support unit realizes the rapid folding of the bracket legs compared with the prior art, so that the blood glucose testing equipment can be used in a variety of complex scenarios. It is convenient for medical staff to use the blood glucose testing equipment to test patients, and the bracket has adjustability. At the same time, the blood glucose testing equipment can be placed on the desktop and can be used normally by medical staff, and the storage operation can be realized.

[0016] Beneficial Effects The present invention provides an enzyme electrode method high-efficiency blood sugar measuring device for real-time monitoring of diabetes. Compared with the prior art, it has the following beneficial effects: 1. This enzyme electrode method high-efficiency blood glucose measuring device for real-time monitoring of diabetes uses the blood sampling method of drawing blood from the patient's arm veins instead of drawing blood from the fingertips. Because the blood drawn from the fingertips is capillary whole blood and contains tissue fluid, the measurement result is slightly lower than the actual value. The venous blood drawn from the veins is more accurate and more suitable for real-time monitoring of patients in daily life.

[0017] 2. The enzyme electrode method efficient blood glucose measuring device for real-time monitoring of diabetes has a monitoring component whose monitoring range is between the patient's elbow joint and the arm, and another monitoring component whose monitoring range is between the patient's elbow joint and the palm. Therefore, after receiving the start signal, the stepper motor stops according to the electrical signal sent by the monitoring component monitoring the area between the elbow joint and the palm. The reason is that the front end of the arm is thin and the back end is thick. Therefore, when the monitoring component monitoring the area between the elbow joint and the palm finds that the upper limit plate causes the arm to deform, it means that a compression state is formed, and the stepper motor stops, thereby realizing automatic start and stop of arm compression when measuring blood glucose of different patients, thereby improving the degree of measurement automation.

[0018] 3. The enzyme electrode method high-efficiency blood glucose measuring device for real-time monitoring of diabetes provides an open measuring structure that does not use a box as a closed structure, and realizes multi-directional angle conversion of the receiving seat through a universal joint in the open measuring structure. Conversely, the bottom sleeve rotates on the fixed rod to change the overall angle of the receiving seat, which makes it convenient for the patient's arm to be placed on the receiving seat, thereby achieving the effect of venous blood sampling test and improving measurement efficiency.

[0019] 4. This enzyme electrode method efficient blood glucose measuring device for real-time monitoring of diabetes realizes the rapid folding of the bracket legs through the support unit compared with the prior art, so that the blood glucose testing equipment can be used in a variety of complex scenarios. It is also convenient for medical staff to use the blood glucose testing equipment to test patients. The bracket is adjustable and the blood glucose testing equipment can be placed on the desktop to ensure normal use by medical staff and realize storage operation. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 This is a schematic diagram of the overall structure of the enzyme electrode method high-efficiency blood sugar measurement device for real-time monitoring of diabetes; Figure 2 This is an overall schematic diagram of an open structure of an enzyme electrode method high-efficiency blood sugar measurement device for real-time monitoring of diabetes; Figure 3 This is a front view of an open structure of an enzyme electrode method high-efficiency blood sugar measuring device for instant monitoring of diabetes; Figure 4 This is a top view of a receiving seat in the enzyme electrode method high-efficiency blood sugar measuring device for real-time monitoring of diabetes; Figure 5 This is a schematic diagram of the structure of the modules placed in the enzyme electrode method high-efficiency blood sugar measurement device for real-time monitoring of diabetes; Figure 6 This is a front view of a module placed in the enzyme electrode method high-efficiency blood sugar measurement device for real-time monitoring of diabetes; Figure 7 This is a schematic diagram of the structure of the placement unit in the enzyme electrode method high-efficiency blood sugar measurement device for real-time monitoring of diabetes; Figure 8 This is a schematic diagram of the structure of the support unit in the enzyme electrode method high-efficiency blood glucose measurement device for real-time monitoring of diabetes.

[0021] In the figure: 100, detection box body; 200, opening; 301, receiving seat; 302, mounting block; 303, guide rod; 304, placement seat; 305, detection notch; 306, buffer gap; 307, airbag; 308, sliding groove; 309, damping rod; 310, extension plate; 311, pressure seat; 312, connecting block; 313, vertical rod; 314, hanging rod; 315, reset spring; 316, rack; 317, gear; 318, drive shaft; 319, stepping motor; 320, connecting rod; 321, adjustment groove; 322, monitoring component; 323, upper limit plate ; 401, column; 402, universal joint; 403, engaging seat; 404, direction rod body; 405, sleeve; 406, fixing rod; 407, hinge rod; 408, raised block; 409, hinge shaft; 410, clamping seat; 411, notch; 412, clamping screw; 413, clamping plate; 501, rotating shaft; 502, transfer block; 503, rotating wheel one; 504, horizontal axis; 505, horizontal connecting plate; 506, bending plate; 507, curved rod; 508, rotating wheel two; 509, base; 510, opening and closing leg one; 511, opening and closing leg two; 512, traction connecting plate. DETAILED DESCRIPTION

[0022] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0023] Reference Figure 1 - Figure 8 , the present invention provides three technical solutions: Embodiment 1, an efficient blood glucose measuring device using enzyme electrode method for real-time monitoring of diabetes, comprises a test box body 100, a test chamber is arranged in the test box body 100, a test opening 200 for extending the patient's arm is arranged on one side of the test box body 100, a placement module is arranged in the test chamber for receiving the patient's arm extending through the test opening 200, a pressing limit structure is arranged on the upper end of the placement module, and the bottom of the test box body 100 is arranged to be hollow and is equipped with a quick-opening and closing support unit. It should be noted that, in contrast to the prior art, the present blood glucose measuring device adopts the method of drawing blood from the venous blood vessels of the patient's arm instead of drawing blood from the fingertips, because the blood drawn from the fingertips is capillary whole blood and contains tissue fluid, and the measurement result is slightly lower than the actual value, while the venous blood drawn from the venous blood vessels is more accurate and more suitable for real-time monitoring of patients in daily life.

[0024] The placement module includes a receiving seat 301 arranged at the bottom of the detection chamber. In order to improve the stability of the load, the receiving seat 301 is semi-arc-shaped as a whole and is used to wrap the patient's arm. The receiving seat 301 is symmetrically provided with mounting blocks 302 at both ends, and a guide rod 303 is provided between the two groups of mounting blocks 302 on the same side. The two guide rods 303 are symmetrically provided with concave placement seats 304 at the front and rear ends. The receiving seat 301 is provided with a detection slot 305 located between the two groups of placement seats 304. A detection sensor for detection is provided in the detection slot 305. The detection test paper in the detection slot 305 is replaced by a paper feeding structure, as shown in the attached Figure 8 As shown, the paper feeding structure is intended to gradually transfer multiple test strips to the test slot 305, thereby avoiding manual replacement of the test strips in the test slot 305. A pressing needle is provided inside the test slot 305 to achieve the purpose of blood collection.

[0025] There is a buffer gap 306 between the two ends of the bottom of the placement seat 304 and the receiving seat 301, and the buffer gap 306 is filled with an air bag 307. The air bag 307 can provide a certain buffer while avoiding excessive venous blockage. A sliding groove 308 is opened in the middle of the receiving seat 301, and damping rods 309 fixedly connected to the receiving seat 301 are arranged in an array above the sliding groove 308. The end of the damping rod 309 away from the receiving seat 301 is fixedly connected to an extension plate 310, and the other end of the extension plate 310 is fixed to the bottom of the corresponding receiving seat 301.

[0026] Embodiment 2, on the basis of embodiment 1: after the measurement of each patient is completed, the pressing limit structure above the receiving seat 301 needs to reset itself to ensure the convenience of subsequent measurements. Therefore, a pressure seat 311 is arranged above the receiving seat 301, and connecting blocks 312 are symmetrically welded on four sides of the pressure seat 311. Each connecting block 312 is provided with a vertical rod 313 whose other end is fixedly installed at the bottom of the detection chamber. A hanging rod 314 fixedly connected to the top of the detection box main body 100 is arranged on the top of the pressure seat 311, and a reset spring 315 is fixedly sleeved between the hanging rod 314 and the pressure seat 311.

[0027] A rack 316 for lifting is welded on one side of the pressure seat 311, and the rack 316 is meshedly connected with a gear 317 arranged on one side. The gear 317 is connected to a drive shaft 318 through a connecting key, and the drive shaft 318 is connected to a stepper motor 319 through a coupling. Because the stepper motor 319 is arranged inside the detection box body 100, the start and stop of the stepper motor 319 needs to be controlled by a control component arranged in the detection box body 100, and connecting rods 320 are rotatably installed at both ends of the drive shaft 318, and the other ends of the two connecting rods 320 are welded to the receiving seat 301, and the two connecting rods 320 are provided with adjustment slots 321, and the two adjustment slots 321 are installed with monitoring components 32 2. The two monitoring components 322 are connected by wires, and the observation areas of the two monitoring components 322 correspond to the two placement seats 304 respectively. Furthermore, the monitoring range of one monitoring component 322 is between the patient's elbow joint and the arm, and the monitoring range of the other monitoring component 322 is between the patient's elbow joint and the palm. Therefore, after receiving the start signal, the stepper motor 319 stops according to the electrical signal sent by the monitoring component 322 monitoring the elbow joint and the palm. The reason is that the front end of the arm is thin and the back end is thick. Therefore, when the monitoring component 322 monitoring the elbow joint and the palm finds that the upper limit plate 323 causes the arm to deform, it means that a compression state is formed, and the stepper motor 319 stops.

[0028] One end of the hanging rod 314 away from the top of the detection box body 100 passes through the pressure seat 311 and is fixedly connected to an upper limit plate 323. The upper limit plate 323 is concave, and the upper limit plate 323 and the placement seat 304 form a pressing and limiting structure.

[0029] Embodiment 3, as attached Figure 2As shown, the above-mentioned blood glucose measurement is intended to be carried out inside the detection box main body 100. Although the accuracy of the measurement is guaranteed to a certain extent, the closed structure affects the measurement efficiency to a certain extent. Therefore, the detection module also has another open measurement structure for real-time monitoring. The open measurement structure includes a column 401 located at the bottom of the receiving seat 301 and fixedly installed. A universal joint 402 for the movement of the detection box main body 100 is fixedly arranged at the bottom of the column 401. The bottom of the universal joint 402 is movably clamped in a matching embedded socket 403. A direction rod body 404 is fixedly arranged at the bottom of the embedded socket 403. A sleeve 405 is welded to the bottom of the direction rod body 404. A rotatably connected fixed rod 406 is arranged in the sleeve 405, and hinge rods 407 sleeved thereon are arranged at both ends of the fixed rod 406.

[0030] The other ends of the two hinge rods 407 are hinged with a hinge shaft 409 limited in two groups of protruding blocks 408, and the two protruding blocks 408 are welded to one side of a clamping seat 410. The other end of the clamping seat 410 is provided with a recess 411 for limiting the edge of the desktop. The top of the clamping seat 410 is threadedly connected to a clamping screw 412 through an internal thread, and the bottom of the clamping screw 412 is connected to a clamping plate 413 located in the recess 411 through a bearing. A plurality of friction patterns are arranged in an array on the clamping plate 413. When the placement module of this embodiment is not in the closed detection box body 100 structure, an open detection method is still provided. The universal joint 402 in the open measurement structure is used to realize the multi-directional angle conversion of the receiving seat 301. Conversely, the bottom sleeve 405 is rotated on the fixed rod 406 to change the overall angle of the receiving seat 301, which facilitates the patient's arm to be placed on the receiving seat 301, thereby achieving the effect of venous blood testing.

[0031] The supporting unit includes a rotating shaft 501 located at one end of the bottom of the detection box body 100, and transfer blocks 502 are symmetrically distributed at both ends of the rotating shaft 501. A rotating wheel 503 is arranged in the middle of the rotating shaft 501, and an opening and closing support leg 510 for support is arranged on one side of the rotating wheel 503. A horizontal axis 504 is arranged in the non-circular area of ​​the rotating wheel 503. The horizontal axis 504 runs through the rotating wheel 503 and has horizontal connecting plates 505 symmetrically arranged at both ends. A base 509 is arranged at the other end of the two horizontal connecting plates 505, and a bending plate 506 is symmetrically arranged at one end of the base 509 away from the horizontal connecting plate 505, and the other end of each bending plate 506 is connected to a rotating wheel 2 508 through a hinge rod 507.

[0032] The rotating shaft 501 is fixedly installed in the groove at the bottom of the detection box body 100, the rotating shaft 501 is limitedly connected with the transfer block 502, and the rotating wheel 1 503 rotates on the rotating shaft 501, the rotating wheel 1 503 is limitedly plugged with the horizontal axis 504, two horizontal connecting plates 505 are limitedly connected with the horizontal axis 504, the other ends of the two horizontal connecting plates 505 are welded to the base 509, the base 509 is fixedly connected with the two bending plates 506, the two bending plates 506 are connected with the rotating wheel 2 508 through the corresponding curved rods 507, the rotating wheel 1 503 is welded with the opening and closing leg 1 510, and the two rotating wheels 2 508 are fixedly connected with an opening and closing leg for support. The two opening and closing legs 511 are provided with a traction connecting plate 512 for simultaneous movement at the bottom of the two opening and closing legs 511, respectively welded to the two opening and closing legs 511, and the two rotating wheels 508 are both rotatably connected to the detection box body 100. Therefore, it can be seen from the above that the support unit realizes the rapid folding of the support legs compared with the prior art, so that the blood glucose detection device can be used in a variety of complex scenarios, and it is convenient for medical staff to use the blood glucose detection device to detect patients, so that the support has adjustability and the blood glucose detection device can be placed on the desktop. The normal use of medical staff can also be guaranteed, and the storage operation can be realized. Meanwhile, the contents not described in detail in this specification belong to the prior art known to those skilled in the art, and the model parameters of each electrical appliance are not specifically limited, and conventional equipment can be used.

[0033] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprises" or any other variations thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0034] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An enzyme electrode method high-efficiency blood sugar measuring device for real-time monitoring of diabetes, characterized in that: The invention comprises a detection box body (100), wherein a detection chamber is arranged in the detection box body (100), a detection opening (200) for extending a patient's arm is arranged on one side of the detection box body (100), a placement module is arranged in the detection chamber for receiving the patient's arm extending through the detection opening (200), a pressing limit structure is arranged at the upper end of the placement module, and the bottom of the detection box body (100) is arranged to be hollow and is equipped with a quick-opening and closing support unit.

2. The enzyme electrode method high-efficiency blood sugar measuring device for real-time monitoring of diabetes according to claim 1, characterized in that: The placement module comprises a receiving seat (301) arranged at the bottom of the detection chamber, the receiving seat (301) is semi-arc-shaped as a whole, mounting blocks (302) are symmetrically arranged at both ends of the receiving seat (301), a guide rod (303) is arranged between the two groups of mounting blocks (302) on the same side, and concave placement seats (304) are symmetrically arranged at the front and rear ends of the two guide rods (303), the receiving seat (301) is provided with a detection slot (305) located between the two groups of placement seats (304), a detection sensor for detection is arranged in the detection slot (305), and the detection test paper in the detection slot (305) is replaced by a paper feeding structure.

3. The enzyme electrode method high-efficiency blood sugar measuring device for real-time monitoring of diabetes according to claim 2, characterized in that: A buffer gap (306) is provided between the two ends of the bottom of the placement seat (304) and the receiving seat (301), and an air bag (307) is filled in the buffer gap (306). A sliding groove (308) is provided in the middle of the receiving seat (301), and damping rods (309) fixedly connected to the receiving seat (301) are arranged in an array above the sliding groove (308). An end of the damping rod (309) away from the receiving seat (301) is fixedly connected to an extension plate (310), and the other end of the extension plate (310) is fixed to the bottom of the corresponding receiving seat (301).

4. The enzyme electrode method high-efficiency blood sugar measuring device for real-time monitoring of diabetes according to claim 3, characterized in that: A pressure seat (311) is arranged above the receiving seat (301), and connecting blocks (312) are symmetrically welded on four sides of the pressure seat (311), and each connecting block (312) is provided with a vertical rod (313) whose other end is fixedly mounted on the bottom of the detection chamber, and a hanging rod (314) fixedly connected to the top of the detection box body (100) is arranged on the top of the pressure seat (311), and a return spring (315) is fixedly sleeved between the hanging rod (314) and the pressure seat (311).

5. The enzyme electrode method high-efficiency blood sugar measuring device for real-time monitoring of diabetes according to claim 4, characterized in that: A rack (316) for lifting and lowering is welded to one side of the pressure seat (311); the rack (316) is meshedly connected to a gear (317) arranged on one side; the gear (317) is connected to a driving shaft (318) via a connecting key; the driving shaft (318) is connected to a stepping motor (319) via a coupling; connecting rods (320) are rotatably mounted at both ends of the driving shaft (318); the other ends of the two connecting rods (320) are welded to the receiving seat (301); the two connecting rods (320) are each provided with an adjustment slot (321); monitoring components (322) are each installed in the two adjustment slots (321); the two monitoring components (322) are connected by a wire; and the observation areas of the two monitoring components (322) correspond to the two placement seats (304) respectively.

6. The enzyme electrode method high-efficiency blood sugar measuring device for real-time monitoring of diabetes according to claim 5, characterized in that: One end of the hanging rod (314) away from the top of the detection box body (100) passes through the pressure seat (311) and is fixedly connected to an upper limit plate (323); the upper limit plate (323) is concave; the upper limit plate (323) and the placement seat (304) form a pressing limit structure.

7. The enzyme electrode method high-efficiency blood sugar measuring device for real-time monitoring of diabetes according to claim 1, characterized in that: The detection module also has another open measurement structure for real-time monitoring, the open measurement structure comprising a column (401) located at the bottom of the receiving seat (301) and fixedly installed, a universal joint (402) for the movement of the detection box body (1) fixedly arranged at the bottom of the column (401), the bottom of the universal joint (402) being movably engaged in a matching engaging seat (403), a direction rod body (404) fixedly arranged at the bottom of the engaging seat (403), a sleeve (405) welded to the bottom of the direction rod body (404), a rotatably connected fixed rod (406) arranged in the sleeve (405), and hinge rods (407) sleeved thereon are arranged at both ends of the fixed rod (406).

8. The enzyme electrode method high-efficiency blood sugar measuring device for real-time monitoring of diabetes according to claim 1, characterized in that: The other ends of the two hinge rods (407) are hingedly connected to a hinge shaft (409) limited in the two groups of protruding blocks (408), and the two protruding blocks (408) are welded to one side of a clamping seat (410). The other end of the clamping seat (410) is provided with a recess (411) for limiting the edge of the desktop. The top of the clamping seat (410) is threadedly connected to a clamping screw (412) via an internal thread, and the bottom of the clamping screw (412) is connected to a clamping plate (413) located in the recess (411) via a bearing. The clamping plate (413) has a plurality of friction patterns arranged in an array.

9. The enzyme electrode method high-efficiency blood sugar measuring device for real-time monitoring of diabetes according to claim 1, characterized in that: The support unit comprises a rotating shaft (501) located at one end of the detection box body (100), and transfer blocks (502) are symmetrically distributed at both ends of the rotating shaft (501). A rotating wheel (503) is arranged in the middle of the rotating shaft (501), and a first opening and closing leg (510) for support is arranged on one side of the rotating wheel (503). A transverse axis (504) is arranged in a non-circular area on the rotating wheel (503), and the transverse axis (504) passes through the rotating wheel (503) and has transverse connecting plates (505) symmetrically arranged at both ends. A base (509) is arranged at the other ends of the two transverse connecting plates (505), and a bending plate (506) is symmetrically arranged at one end of the base (509) away from the transverse connecting plate (505), and each bending plate (506) is connected to a rotating wheel (508) at the other end through a bending rod (507).

10. The enzyme electrode method high-efficiency blood sugar measuring device for real-time monitoring of diabetes according to claim 1, characterized in that: The rotating shaft (501) is fixedly installed in a groove of the detection box body (100), the rotating shaft (501) is limitedly connected to the input transfer block (502), and the rotating wheel (503) rotates on the rotating shaft (501), the rotating wheel (503) is limitedly plugged with the horizontal shaft (504), the two horizontal connecting plates (505) are limitedly connected to the horizontal shaft (504), the other ends of the two horizontal connecting plates (505) are welded to the base (509), the base (509) is fixedly connected to the two bending plates (506), and the two bending plates (506) are connected to the second rotating wheel (508) through the corresponding curved rod (507), the first rotating wheel (503) is welded to the first opening and closing leg (510), the two second rotating wheels (508) are fixedly connected to the second opening and closing leg (511) for support, and the bottom of the two second opening and closing legs (511) is provided with a traction connection plate (512) for simultaneous movement, and the traction connection plate (512) is respectively welded to the two second opening and closing legs (511), and the two second rotating wheels (508) are rotatably connected to the detection box body (100).

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