A human management monitoring system based on an in-vitro monitoring device

Abstract

This invention discloses a human body management and monitoring system based on an external monitoring device, relating to the field of medical monitoring equipment technology. It includes a monitoring device container, a rapid deployment support frame for the monitoring device, a positioning and locking mechanism for the support frame, an external monitoring device, and a follow-up balancing support mechanism. The monitoring device container contains a monitoring device box. Two longitudinal box top plates are fixedly connected to the top two sides of the monitoring device box. The rear bottom of each box top plate is movably connected to the rear end of a lower support arm, and the front end of each lower support arm is movably connected to the rear bottom of a supporting vertical plate. The front top of each box top plate is movably connected to the rear end of an upper support arm. This human body management and monitoring system based on an external monitoring device can be quickly stored to reduce space occupation and is also convenient for rapid deployment and use. When deployed, the overall center of gravity is stable, allowing it to be transferred with the hospital bed, and continuous health monitoring of the patient can be performed during the transfer.

Description

Technical Field

[0001] This invention relates to the field of medical monitoring equipment technology, specifically to a human body management and monitoring system based on an external monitoring device. Background Technology

[0002] To better monitor and manage human health, various monitoring devices and technologies have emerged. Current technologies generally employ external monitoring devices to monitor a patient's health status. These devices are typically placed beside the bed, but they occupy a large amount of space. If stored away, they cannot be quickly deployed when needed, and rapid deployment can cause instability. Furthermore, if the patient is moved with the bed, these monitoring devices cannot move with the bed, affecting health monitoring during the transfer. Summary of the Invention

[0003] The technical problem to be solved by the present invention is to overcome the existing defects and provide a human body management and monitoring system based on an external monitoring device. The external monitoring device can be quickly stored to reduce space occupation and is also convenient to be quickly deployed and put into use. When deployed, the overall center of gravity is stable and there is no risk of tipping over. It can be fixed to one side of the hospital bed and can be transferred with the hospital bed. During the transfer, it can continuously monitor the patient's health, which can effectively solve the problems in the background technology.

[0004] To achieve the above objectives, the present invention provides the following technical solution: a human body management and monitoring system based on an external monitoring device, comprising a monitoring device container, the monitoring device container including a monitoring device housing, and further comprising: The monitoring equipment rapid deployment support frame includes a box top plate. Two longitudinal box top plates are fixedly connected to the top sides of the monitoring equipment box. The rear bottom of each box top plate is movably connected to the rear end of the lower support arm. The front end of each lower support arm is movably connected to the rear bottom of the supporting vertical plate. The front top of each box top plate is movably connected to the rear end of the upper support arm. The front end of each upper support arm is movably connected to the front top of the supporting vertical plate. The tops of the two supporting vertical plates are fixedly connected to the bottom sides of the support base plate. The lower support arm and the upper support arm are the same size and are set parallel to each other. The support frame positioning and locking mechanism is installed on the left-side support vertical plate; The in vitro monitoring device is mounted on the support base plate; The follow-up balancing support mechanism is installed at the bottom of the monitoring equipment box.

[0005] Furthermore, the support frame positioning and locking mechanism includes a locking post. A transverse locking post is fixedly connected to the middle of the upper support arm on the left side. A longitudinal sliding groove is provided on the side of the support vertical plate on the left side. A sliding block is slidably connected in the longitudinal sliding groove. The left side of the sliding block is fixedly connected to the front end of the locking seat. The slot at the rear end of the locking seat engages with the right end of the locking post. The right end of the sliding block is fixedly connected to the rear end of the control rod. The front end of the control rod is bent downward to form a handle. The middle part of the control rod is slidably connected to the guide sleeve. The guide sleeve is fixed on the support vertical plate. A compression spring is sleeved on the rod segment of the control rod located between the guide sleeve and the sliding block. After being stored, the external monitoring device is located in the center of the monitoring equipment box. When deploying the external monitoring device, hold the curved handle and pull it forward. Pulling the curved handle moves the control rod, sliding block, and locking seat forward relative to the support plate. At this time, the compression spring is compressed. Then, using the curved handle, the support plate can be pulled forward from the monitoring equipment box. When the lower support arm and upper support arm are in a horizontal position, and the top of the upper support arm is just touching the top of the monitoring equipment box, the operator knows that the external monitoring device is deployed. At this time, support the bottom of the support plate and then release the curved handle. When the compression spring rebounds and extends, it pushes the control rod, sliding block, and locking seat to move backward relative to the support plate. During the backward movement of the locking seat, the slot at its rear end engages with the right end of the locking post. After the locking seat and locking post are locked, the bottom of the support plate can be released. At this time, the angle between the upper support arm and the support plate will no longer change, thus completing the locking of the upper support arm and the support plate, keeping the external monitoring device in the position at the top front of the monitoring device box. When the external monitoring device needs to be stored again, simply pull the bend handle forward to move the locking seat forward and disengage it from the locking post to store the external monitoring device.

[0006] Furthermore, the external monitoring device includes an external monitoring component. A steering sleeve is rotatably installed in the circular hole in the center of the support plate. The bottom of the steering sleeve is connected to a steering locking component, and the top of the steering sleeve is fixedly connected to the bottom of the steering seat. The external monitoring component is installed on the steering seat, and a cable storage component is installed at the bottom of the support plate. The steering seat can rotate relative to the support plate with the help of the steering sleeve, thereby changing the orientation of the external monitoring component for convenient use at multiple angles. After the angle is adjusted to the correct position, the steering locking component locks the steering sleeve and the support plate to prevent the external monitoring component from rotating uncontrollably. The external monitoring component is used to monitor the patient's health. When not in use, the cable storage component can store the loose cables of the external monitoring component, making it neat and tidy, thus facilitating the storage of the external monitoring component in the monitoring equipment box.

[0007] Furthermore, the external monitoring component includes a Holter monitor, which is mounted on a steering seat. A controller is mounted on the back of the Holter monitor, and a communication module is installed on the controller. The side of the controller is connected to a pulse oximeter via a cable. The Holter monitor is used to monitor the patient's cardiac electrical activity, and the pulse oximeter is used to monitor the patient's pulse oxygenation. The monitored data can be transmitted to the controller, which then transmits the monitoring data externally via the communication module, facilitating doctors and nurses to be aware of any abnormal monitoring conditions.

[0008] Furthermore, the follow-up balancing support mechanism includes a box base frame. The bottom of the monitoring equipment box is fixedly connected to the box base frame. Two universal wheels are installed on both sides of the bottom rear end of the box base frame. The rear ends of two three-section slide rails are connected to both sides of the inner side of the box base frame. The front ends of the two three-section slide rails are fixedly connected to both sides of the inner side of the U-shaped frame. Two universal wheels are installed on both sides of the bottom front end of the U-shaped frame. The rear end of the U-shaped frame is connected to the support plate through the deployment support frame follow-up component. Two locking bolts are threaded to both sides of the front end of the box base frame.

[0009] Furthermore, the deployment support frame follow-up assembly includes a bottom longitudinal groove, multiple telescopic rods, and telescopic rod seats. The bottom ends of two multiple telescopic rods are fixedly connected to the rear ends of the U-shaped frame, and the tops of the two multiple telescopic rods are fixedly connected to the rear bottom ends of two supporting vertical plates through two telescopic rod seats. Two bottom longitudinal grooves are respectively opened at the bottom of the monitoring equipment box corresponding to the positions of the two multiple telescopic rods.

[0010] Three-section sliding rails connect the base frame and the U-shaped frame, allowing the U-shaped frame to extend fully from the front end of the base frame. When the supporting vertical plate extends from the monitoring equipment box along with the external monitoring equipment and support base plate, the supporting vertical plate, via multi-section telescopic rods, drives the U-shaped frame to extend from the inside of the base frame. This increases the distance between the front and rear casters, improving the stability of the monitoring equipment box and preventing instability of the overall center of gravity after the external monitoring equipment is deployed. This enhances stability during use and prevents tipping. The casters are equipped with wheel brakes; these brakes must be disengaged when storing or deploying the external monitoring equipment, allowing the U-shaped frame to move freely at the bottom. When storing the external monitoring equipment, the supporting vertical plate will also retract the U-shaped frame into the inner side of the box base via multiple telescopic rods. At this time, the two universal wheels at the bottom of the U-shaped frame correspond to the front sides of the monitoring equipment box, reducing the overall volume. When moving the monitoring equipment box, it is necessary to prevent the U-shaped frame from extending uncontrollably from the front side of the box base, and also to prevent the external monitoring equipment and support plate from moving back and forth in the middle of the monitoring equipment box. Therefore, tighten the locking bolts to make the locking bolts press against the U-shaped frame, locking the U-shaped frame to the box base. Since the multiple telescopic rods cannot move back and forth with the U-shaped frame, the external monitoring equipment and support plate cannot move back and forth in the middle of the monitoring equipment box.

[0011] Furthermore, it also includes a telescopic deployment mechanism for the top-mounted monitoring equipment and an EEG monitoring device. The telescopic deployment mechanism for the top-mounted monitoring equipment includes sliding seats, sliding vertical rods, a deployment lifting plate, guide wheels, and a lifting deployment control assembly. Two sliding seats are fixedly connected to the bottom of each top plate near the center of the monitoring equipment box. A sliding vertical rod is slidably connected to each sliding seat. A guide wheel is rotatably installed at the bottom of each sliding vertical rod. The tops of the four sliding vertical rods are fixedly connected to the four bottom corners of the deployment lifting plate. The EEG monitoring device is installed on the deployment lifting plate. The lifting deployment control assembly is connected between the two lower support arms. A rectangular through slot corresponding to the deployment lifting plate is opened on the top of the monitoring equipment box.

[0012] Furthermore, the lifting deployment control assembly includes a control plate, ear seats, movable columns, and disassembly pins. The control plate is located below the two lower support arms. Four ear seats are fixedly connected to the four corners of the upper side of the control plate. The two rear ear seats are movably connected to the rear side of the two lower support arms through two movable columns. The two front ear seats are connected to the pin holes on the front side of the two lower support arms through two disassembly pins.

[0013] When the external monitoring device needs to be taken out of the monitoring equipment box for use, the two lower support arms swing forward step by step, causing the bottom of the control board to flip forward and gradually reach a horizontal state. The control board first rolls into contact with the guide wheel on the rear side, pushing the sliding vertical rod to slide upward along the sliding seat, which can lift up the deployment lifting plate, thereby lifting the EEG monitoring device and allowing the EEG monitoring device to extend out from the rectangular through slot at the top of the monitoring equipment box, making it convenient for the EEG monitoring device to be put into use. After the external monitoring device is deployed in place, the control board is also in a horizontal state. The deployment lifting plate and the EEG monitoring device are raised to the highest position, and the top surface of the deployment lifting plate is flush with the top surface of the monitoring equipment box. When the external monitoring device is being stored, the front ends of the two lower support arms gradually swing downwards. The control plate no longer supports the guide wheels. Due to gravity, the EEG monitoring device and the deployment lifting plate descend. The EEG monitoring device gradually retracts into the rectangular through slot. When the deployment lifting plate contacts the top of the sliding seat, the deployment lifting plate and the EEG monitoring device stop descending. The deployment lifting plate and the EEG monitoring device are located directly above the external monitoring device inside the monitoring equipment box, and they will not interfere with each other.

[0014] When deploying external monitoring equipment, it may not be necessary to use EEG monitoring equipment. In this case, pull out the disassembly pin, and when the bottom of the two lower support arms swings forward, the control board will always be in a vertical state. The control board will no longer use the guide wheels and sliding vertical rods to support the lifting plate and EEG monitoring equipment, and the deployment of external monitoring equipment and EEG monitoring equipment will no longer be linked.

[0015] Furthermore, the EEG monitoring device includes a lifting box, a sleeve, an EEG monitoring display screen, an operating cover, and a dynamic EEG monitoring main unit. A sleeve is rotatably mounted through a circular hole on the lifting plate. The top of the sleeve is fixedly connected to the lifting box, and the top of the lifting box is movably connected to the display screen. The top of the display screen is fixedly connected to the operating cover. The dynamic EEG monitoring main unit is located on one side inside the lifting box. When the EEG monitoring device is raised above the monitoring equipment box, the EEG monitoring display screen and operating cover can be flipped upwards to expose the dynamic EEG monitoring main unit. The dynamic EEG monitoring main unit can be used to monitor the patient's brain activity. A matching digital EEG monitoring helmet can be placed inside the lifting box, and the brain activity can be displayed on the EEG monitoring display screen. The rotation of the sleeve relative to the lifting plate can change the orientation of the EEG monitoring display screen. As needed, the rotation of the sleeve can also be designed to create friction to prevent the sleeve and lifting box from rotating uncontrollably relative to the lifting plate.

[0016] Furthermore, it also includes a bed-side fixing component, which includes adjusting vertical rails. Adjusting vertical rails are respectively provided on the left, right, and rear sides of the monitoring equipment box. A limiting block is fixedly connected to the bottom of each adjusting vertical rail. An adjusting slide is slidably mounted on one of the adjusting vertical rails, and a fastening bolt is threaded onto the adjusting slide. A fixing plate is fixedly connected to the bottom of the adjusting slide. As needed, the adjusting slide can be slidably mounted on one of the adjusting vertical rails, aligning the fixing plate with the perforated groove on the side of the bed. Pressing down on the adjusting slide causes the vertical part of the fixing plate to insert into the perforated groove. Then, tightening the fastening bolt locks the adjusting slide and the adjusting vertical rail, ensuring the vertical part of the fixing plate is securely inserted into the perforated groove, thus fixing the fixing plate to the bed. When transferring patients using the bed, the monitoring equipment box can also move. The monitoring equipment box is easily moved with the bed using casters, allowing for continuous monitoring of the patient's health using external monitoring equipment during transfer.

[0017] Compared with existing technologies, the beneficial effects of this human body management and monitoring system based on external monitoring devices are: 1. This human body management and monitoring system based on external monitoring equipment includes a rapid deployment support frame for installing external monitoring equipment inside the monitoring equipment box. This support frame serves as a storage or deployment mechanism for the external monitoring equipment, allowing it to be quickly extended from the monitoring equipment box and put into use. The external monitoring equipment is used for health monitoring of patients.

[0018] 2. This human body management and monitoring system based on external monitoring equipment has a lower support arm and an upper support arm that, together with the top plate and supporting vertical plate, form a movable parallelogram structure. When the external monitoring equipment is needed, the support base plate is pulled forward from inside the monitoring equipment box. The support base plate and the external monitoring equipment remain horizontal as the lower and upper support arms move. Once the lower and upper support arms are horizontal, the supporting vertical plate on the left and the upper support arm on the left are locked by the support frame positioning and locking mechanism. At this point, the support base plate and the external monitoring equipment no longer move, completing the rapid deployment of the external monitoring equipment. The process of the external monitoring equipment extending forward from inside the monitoring equipment box also drives the follow-up balancing support mechanism to unfold, making the support of the follow-up balancing support mechanism for the monitoring equipment box more stable and preventing the overall structure from becoming unstable after the external monitoring equipment extends from the front of the monitoring equipment box.

[0019] 3. This human body management and monitoring system based on external monitoring devices allows for quick storage to reduce space occupation and facilitates rapid deployment and use. When deployed, the overall center of gravity is stable, eliminating the risk of tipping over. It can be fixed to one side of the hospital bed and moved with the bed, continuously monitoring the patient's health during the transfer. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the human body management and monitoring system based on external monitoring equipment according to the present invention; Figure 2 For the present invention Figure 1 A magnified view of the structure at point A in the middle; Figure 3 For the present invention Figure 1 A magnified schematic diagram of the structure at point B in the middle; Figure 4 This is a schematic diagram of the door locking component structure in the human body management and monitoring system based on external monitoring equipment of the present invention; Figure 5 This is a schematic diagram of the rear structure of the human body management and monitoring system based on an external monitoring device according to the present invention; Figure 6 This is a schematic diagram of the internal structure of the human body management and monitoring system based on an external monitoring device according to the present invention; Figure 7 For the present invention Figure 6 A magnified schematic diagram of the structure at point C in the middle; Figure 8 This is a schematic diagram of the support frame positioning and locking mechanism in the human body management and monitoring system based on external monitoring equipment of the present invention; Figure 9 This is a schematic diagram of the telescopic deployment mechanism of the monitoring device on the top of the box and the electroencephalogram (EEG) monitoring device in the human body management and monitoring system based on external monitoring equipment of the present invention; Figure 10 This is a schematic diagram of the external monitoring device in the human body management and monitoring system based on external monitoring devices of the present invention; Figure 11 For the present invention Figure 10 A magnified schematic diagram of the structure at point D in the middle; Figure 12 This is a schematic diagram of the cable storage drawer in the human body management and monitoring system based on external monitoring equipment of the present invention; Figure 13 This is a schematic diagram of the bedside fixation component in the human body management and monitoring system based on external monitoring equipment of the present invention; In the diagram: 1. Monitoring equipment container; 11. Monitoring equipment box; 12. Hinge; 13. Box door; 14. Locking door bend; 15. Groove; 16. Horizontal column; 17. Locking door movable rod; 18. Locking door stop; 19. Strip groove; 2. Monitoring equipment quick deployment support frame; 21. Box top plate; 22. Movable shaft one; 23. Lower support arm; 24. Movable shaft two; 25. Upper support arm; 26. Supporting vertical plate; 27. Movable shaft three; 28. Movable shaft four; 29. ​​Support base plate; 3. Support frame positioning and locking mechanism; 31. Locking post; 32. Longitudinal sliding groove; 33. Sliding block; 34. Guide sleeve; 35. Control rod; 36. Bend; 37. Compression spring; 38. Lock. 4. Fixed mounting bracket, 4. External monitoring equipment, 41. Steering sleeve, 42. Steering seat, 43. Positioning tooth groove, 44. Support sleeve, 45. Positioning slide rod, 46. Positioning spring, 47. Positioning tooth block, 48. Support plate, 49. Pitch axis, 410. Friction pad, 411. Dynamic electrocardiograph, 412. Controller, 413. Communication module, 414. Cable, 415. Pulse oximeter, 416. Longitudinal slide rail, 417. Cable storage drawer, 418. Longitudinal slide bar, 419. Drawer front panel, 420. Cable tray, 421. Magnetic block one, 422. Magnetic block two, 5. Follow-up balance support mechanism, 51. Box base frame, 52. Universal wheels, 53. Three-section slide rail, 54. U-shaped frame, 55 bottom longitudinal groove, 56 multi-section telescopic rod, 57 telescopic rod seat, 58 locking bolt, 6 telescopic deployment mechanism for monitoring equipment on top of the box, 61 sliding seat, 62 sliding vertical rod, 63 deployment lifting plate, 64 guide wheel, 65 control panel, 66 ear seat, 67 movable column, 68 disassembly pin, 7 EEG monitoring equipment, 71 lifting box, 72 sleeve, 73 EEG monitoring display screen, 74 operating cover plate, 75 dynamic EEG monitoring instrument host, 8 bed side fixing component, 81 adjusting vertical rail, 82 adjusting slide, 83 fastening bolt, 84 limiting bottom block, 85 fixing bend plate, 9 mobile power supply. Detailed Implementation

[0021] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0022] Example 1, please refer to Figures 1 to 13 This embodiment provides a technical solution: a human body management and monitoring system based on an external monitoring device, including a monitoring device container 1, the monitoring device container 1 including a monitoring device box 11, and an opening provided on the front side of the monitoring device box 11.

[0023] The monitoring equipment container 1 also includes hinges 12, a door 13, and a door locking assembly. The door 13 is movably connected to the front right side of the monitoring equipment container 11 via two hinges 12. The door 13 has a range of motion of 90 degrees. A door locking assembly is installed on the front bottom left side of the monitoring equipment container 11. When the door 13 is closed, the door locking assembly can block the bottom of the door 13, preventing the door 13 from being opened again, thus blocking and locking the door 13. To facilitate opening the door 13, a door latch groove can be provided on the front side of the door 13.

[0024] The door locking assembly includes a door bend 14, a groove 15, a crossbar 16, a door movable rod 17, a door stop 18, and a strip-shaped through groove 19. The rear end of the door bend 14 is fixedly connected to the front side of the bottom left end of the monitoring equipment box 11. The door bend 14 has an L-shaped structure, and its top surface is slightly lower than the bottom surface of the box door 13. A groove 15 is provided on the front side of the door bend 14, and a crossbar 16 is fixedly connected to the top of the groove 15. A strip-shaped through groove 19 is provided on the side of the door movable rod 17. A door lock stop 18 is fixedly connected to the end, and a door lock movable rod 17 is installed in the groove 15, with the horizontal column 16 passing through the strip groove 19. When the box door 13 needs to be opened, the door lock stop 18 at the end of the door lock movable rod 17 is turned downwards. Due to gravity, the door lock movable rod 17 sinks in the groove 15, and finally the horizontal column 16 is at the top of the strip groove 19. At this time, the door lock stop 18 is below the bottom front end of the door lock bend 14. The door lock stop 18 and the door lock movable rod 17 will not block the bottom of the box door 13, and the box door 13 can be opened freely. When closing the box door 13, to lock it, rotate the bottom of the locking lever 17 and the locking stop 18 forward 180 degrees, so that the locking stop 18 at the end of the locking lever 17 faces upward. Then release the locking lever 17 and the locking stop 18. Due to gravity, the locking lever 17 moves downward in the groove 15 until the locking stop 18 encounters the top front surface of the locking bend 14 and stops. At this time, the crossbar 16 is in the strip groove 1. The lock door 18 is located near the bottom front of the door 13. When the door 13 tends to open, it encounters the rear side of the lock door 18. Since the rear side of the lock door moving rod 17 is close to the rear side of the groove 15, and the horizontal bar 16 passes through the strip groove 19 near the lock door 18, the lock door 18 will not move forward. The lock door 18 can then steadily block the door 13 and lock the door 13. When unlocking is required, pull up the door lock stop 18 and the door lock lever 17 until the horizontal bar 16 is in the slot 19 away from the door lock stop 18. Then, flip the top of the door lock lever 17 and the door lock stop 18 forward 180 degrees and release the top of the door lock lever 17 and the door lock stop 18. The top of the door lock lever 17 and the door lock stop 18 will hang down naturally. At this time, the door lock stop 18 will no longer block the bottom front side of the box door 13, and the box door 13 can be opened.

[0025] It is also equipped with a rapid deployment support frame for monitoring equipment 2, a support frame positioning and locking mechanism 3, an external monitoring device 4, and a follow-up balancing support mechanism 5.

[0026] The rapid deployment support frame 2 for monitoring equipment includes a top plate 21, a first movable shaft 22, a lower support arm 23, a second movable shaft 24, an upper support arm 25, a supporting vertical plate 26, a third movable shaft 27, a fourth movable shaft 28, and a support base plate 29. Two longitudinal top plates 21 are fixedly connected to the top sides of the monitoring equipment box 11. The rear bottom of each top plate 21 is movably connected to the rear end of the lower support arm 23 via the first movable shaft 22. The front end of each lower support arm 23 is movably connected to the rear bottom of the supporting vertical plate 26 via the third movable shaft 27. The front top of each top plate 21 is movably connected to the rear end of the upper support arm 25 via the second movable shaft 24. The front end of each upper support arm 25 is movably connected to the front top of the supporting vertical plate 26 via the fourth movable shaft 28. The tops of the two supporting vertical plates 26 are fixedly connected to the bottom sides of the support base plate 29. The lower support arm 23 and the upper support arm 25 are the same size and are arranged parallel to each other.

[0027] The support frame positioning and locking mechanism 3 is installed on the left-side support vertical plate 26.

[0028] The support frame positioning and locking mechanism 3 includes a locking post 31, a longitudinal sliding groove 32, a sliding block 33, a guide sleeve 34, a control rod 35, a bend 36, a compression spring 37, and a locking seat 38. The upper support arm 25 on the left side is fixedly connected to the transverse locking post 31. The support vertical plate 26 on the left side is provided with a longitudinal sliding groove 32. A sliding block 33 is slidably connected in the longitudinal sliding groove 32. The left side of the sliding block 33 is fixedly connected to the front end of the locking seat 38. The slot at the rear end of the locking seat 38 engages with the right end of the locking post 31. The right end of the sliding block 33 is fixedly connected to the rear end of the control rod 35. The front end of the control rod 35 is bent downward to form a bend 36. The middle part of the control rod 35 is slidably connected to the guide sleeve 34. The guide sleeve 34 is fixed on the support vertical plate 26. The section of the control rod 35 located between the guide sleeve 34 and the sliding block 33 is sleeved with a compression spring 37. After storage, the external monitoring device 4 is located in the center of the monitoring device box 11. When the external monitoring device 4 needs to be deployed and used, hold the curved handle 36 and pull it forward. The curved handle 36 pulls the control rod 35, the sliding block 33, and the locking seat 38 forward relative to the supporting vertical plate 26. At this time, the compression spring 37 is compressed. Then, with the help of the curved handle 36, the external monitoring device 4 can be pulled forward from the monitoring device box 11. When the lower support arm 23 and the upper support arm 25 are in a horizontal state, and the top of the upper support arm 25 is just touching the top of the monitoring device box 11, the operator knows that the external monitoring device 4 is deployed in place. At this time, support the bottom of the supporting vertical plate 26 and then release the curved handle 36. The compression spring 37 rebounds and extends, pushing the control rod 35, sliding block 33, and locking seat 38 to move backward relative to the supporting vertical plate 26. During the backward movement of the locking seat 38, the slot at its rear end engages with the right end of the locking post 31. After the locking seat 38 and the locking post 31 are engaged, the bottom of the supporting vertical plate 26 can be released. At this time, the angle between the upper support arm 25 and the supporting vertical plate 26 will no longer change, thus completing the locking of the upper support arm 25 and the supporting vertical plate 26, keeping the external monitoring device 4 in the position in front of the top of the monitoring device box 11. When it is necessary to reassemble the external monitoring device 4, simply pull the bend handle 36 forward to move the locking seat 38 forward and disengage it from the locking post 31 to reassemble the external monitoring device 4.

[0029] The in vitro monitoring device 4 is installed on the support plate 29.

[0030] The external monitoring device 4 includes a steering sleeve 41, a steering seat 42, a steering locking assembly, a cable storage assembly, and an external monitoring assembly. The steering sleeve 41 is rotatably installed in the circular hole in the middle of the support plate 29 via a bearing. The bottom of the steering sleeve 41 is connected to the steering locking assembly, and the top of the steering sleeve 41 is fixedly connected to the bottom of the steering seat 42. The external monitoring assembly is installed on the steering seat 42, and the cable storage assembly is installed on the bottom of the support plate 29.

[0031] The steering locking assembly includes positioning grooves 43, a support sleeve 44, a positioning slide rod 45, a positioning spring 46, and a positioning tooth block 47. Positioning grooves 43 are arranged in a circular array on the bottom outer periphery of the steering sleeve 41. The support sleeve 44 is fixedly connected to the bottom of the support base plate 29 at a position behind the steering sleeve 41. A longitudinal positioning slide rod 45 is slidably connected inside the support sleeve 44. A positioning tooth block 47 is fixedly connected to the front end of the positioning slide rod 45. A positioning spring 46 is sleeved on the section of the positioning slide rod 45 between the support sleeve 44 and the positioning tooth block 47. The positioning spring 46 is in a compressed state. The elastic force of the positioning spring 46 pushes the positioning slide rod 45 and the positioning tooth block 47 forward relative to the support sleeve 44, allowing the positioning tooth block 47 to move forward. The front end of block 47 abuts against the corresponding positioning tooth groove 43. When the steering sleeve 41 and steering seat 42 rotate, the positioning tooth block 47 passes over one side of the positioning tooth groove 43, causing the positioning slide rod 45 and the positioning tooth block 47 to move backward relative to the support sleeve 44. The positioning spring 46 is compressed. When the positioning tooth block 47 encounters the next positioning tooth groove 43, the positioning spring 46 returns to its original position and extends, pushing the positioning slide rod 45 and the positioning tooth block 47 forward relative to the support sleeve 44, so that the positioning tooth block 47 engages with the next corresponding positioning tooth groove 43. This achieves locking of the steering sleeve 41 and steering seat 42 after rotation, so that the steering sleeve 41 and steering seat 42 have resistance when rotating and can be locked after stopping rotation, preventing uncontrolled rotation.

[0032] The steering seat 42 can rotate relative to the support plate 29 with the help of the steering sleeve 41, thereby changing the orientation of the external monitoring component for convenient use at multiple angles. After the angle is adjusted to the correct position, the steering locking component locks the steering sleeve 41 and the support plate 29 to prevent the external monitoring component from rotating uncontrollably. The external monitoring component is used to monitor the patient's health. When not in use, the cable storage component can store the scattered cables of the external monitoring component, making it neat and tidy, so as to facilitate storing the external monitoring component in the monitoring equipment box 11.

[0033] The external monitoring component includes a Holter monitor 411, a controller 412, a communication module 413, a cable 414, and a pulse oximeter 415. The Holter monitor 411 is mounted on a rotating base 42, and the controller 412 is mounted on the back of the Holter monitor 411. The communication module 413 is mounted on the controller 412, and the pulse oximeter 415 is connected to the side of the controller 412 via the cable 414. The Holter monitor 411 is used to monitor the patient's cardiac electrical activity, and the pulse oximeter 415 is used to monitor the patient's pulse oxygenation. The monitored data can be transmitted to the controller 412, which transmits the monitoring data externally via the communication module 413, allowing doctors and nurses to be aware of any abnormal monitoring conditions. The communication module 413 can use existing technology, such as a wireless communication module.

[0034] The external monitoring device 4 also includes a support plate 48, a pitch axis 49, and a friction pad 410. Two support plates 48 are fixedly connected to the top two sides of the steering seat 42, and two pitch axes 49 are fixedly connected to the bottom two sides of the dynamic electrocardiograph 411. The two pitch axes 49 are rotatably connected to the two support plates 48, thereby realizing the movable connection between the dynamic electrocardiograph 411 and the top of the steering seat 42, which facilitates the adjustment of the pitch angle of the dynamic electrocardiograph 411. When it needs to be stored, the dynamic electrocardiograph 411 can be folded down to reduce space occupation. In order to provide resistance to the folding of the dynamic electrocardiograph 411, a friction pad 410 is sleeved on the pitch axis 49 between the dynamic electrocardiograph 411 and the support plate 48. The friction pad 410 provides friction for the movement of the dynamic electrocardiograph 411.

[0035] The cable storage assembly includes longitudinal slide rails 416, a cable storage drawer 417, longitudinal slide bars 418, a drawer front panel 419, cable channels 420, a first magnet 421, and a second magnet 422. Two longitudinal slide rails 416 are fixedly connected to the bottom sides of the support base plate 29, and a cable storage drawer 417 is located between the two longitudinal slide rails 416. Two longitudinal slide bars 418 are located on each side of the cable storage drawer 417, and the two longitudinal slide bars 418 are slidably connected to the two longitudinal slide rails 416. The forward and backward movement of the cable storage drawer 417 will not interfere with the steering locking assembly. A drawer front panel 419 is fixedly connected to the front of the cable storage drawer 417. Multiple cable channels 420 are horizontally and equidistantly provided on the drawer front panel 419. Typically, four cable channels 420 are used to store the wires or cables 414 from the dynamic electrocardiograph 411 into the cable storage drawer. Inside 417, wires or cables 414 pass through the cable tray 420. When storing, it is not necessary to remove the wires from the dynamic electrocardiograph 411 or the cable 414 connecting to the controller 412, which facilitates quick use of the equipment next time it is unfolded. A magnetic block 421 is provided on the top of the drawer front panel 419. A magnetic block 422 is fixedly connected to the front end of the support plate 29 at the position corresponding to the magnetic block 421. The magnetic poles of the magnetic block 422 and the magnetic block 421 are opposite at the ends that are close to each other. The magnetic blocks 422 and 421 are magnetically attracted together, which can magnetically lock the drawer front panel 419 and the cable storage drawer 417, so that the drawer front panel 419 and the cable storage drawer 417 are stably closed and prevented from being opened uncontrollably. In order to facilitate pulling out the drawer front panel 419 and the cable storage drawer 417, a drawer latch groove is provided in the middle of the front end of the drawer front panel 419.

[0036] The follow-up balancing support mechanism 5 is installed at the bottom of the monitoring equipment box 11.

[0037] The follow-up balancing support mechanism 5 includes a box base frame 51, casters 52, three-section slide rails 53, a U-shaped frame 54, locking bolts 58, and a deployment support frame follow-up assembly. The bottom of the monitoring equipment box 11 is fixedly connected to the box base frame 51. The front side of the box base frame 51 is open. Two casters 52 are installed on both sides of the bottom rear end of the box base frame 51. The rear ends of two three-section slide rails 53 are connected to both sides of the inner side of the box base frame 51. The front ends of the two three-section slide rails 53 are fixedly connected to both sides of the inner side of the U-shaped frame 54. Two casters 52 are installed on both sides of the bottom front end of the U-shaped frame 54. The rear end of the U-shaped frame 54 is connected to the support plate 26 through the deployment support frame follow-up assembly. Two locking bolts 58 are threadedly connected to both sides of the front end of the box base frame 51. The locking bolts 58 are wing bolts.

[0038] The three-section slide rail 53 can adopt existing technology, such as interlocking three-section slide rail, which allows the U-shaped frame 54 to extend completely from the bottom frame 51, or allows the U-shaped frame 54 to retract completely into the inside of the bottom frame 51.

[0039] The deployment support frame follow-up component includes a box bottom longitudinal groove 55, multi-section telescopic rods 56 and telescopic rod seats 57. The bottom ends of two multi-section telescopic rods 56 are fixedly connected to the rear ends of the U-shaped frame 54, and the tops of the two multi-section telescopic rods 56 are fixedly connected to the rear bottom of two supporting vertical plates 26 through two telescopic rod seats 57. Two box bottom longitudinal grooves 55 are opened at the bottom of the monitoring equipment box 11 corresponding to the positions of the two multi-section telescopic rods 56.

[0040] The multi-section telescopic pole 56 adopts existing technology, and when it is shortened to its shortest state, it meets the requirement of the shortest distance between the telescopic pole seat 57 and the U-shaped frame 54.

[0041] The three-section slide rail 53 slides to connect the base frame 51 and the U-shaped frame 54, allowing the U-shaped frame 54 to extend fully from the front end of the base frame 51. When the supporting vertical plate 26 extends out of the monitoring equipment box 11 along with the external monitoring device 4 and the supporting base plate 29, the supporting vertical plate 26 drives the U-shaped frame 54 to extend out from the inside of the base frame 51 through the multi-section telescopic rod 56, increasing the distance between the front and rear casters 52. This improves the support stability of the monitoring equipment box 11, preventing the overall center of gravity from becoming unstable after the external monitoring device 4 extends out of the monitoring equipment box 11 and is deployed, thus improving stability during use and preventing it from tipping over. The casters 52 are equipped with wheel brakes. When storing or deploying the external monitoring device 4, the wheel brakes on the casters 52 need to be released, allowing the casters 52 at the bottom of the U-shaped frame 54 to move freely. When the external monitoring device 4 is stored, the supporting vertical plate 26 will also drive the U-shaped frame 54 to retract into the inside of the box base frame 51 through the multi-section telescopic rod 56. At this time, the two universal wheels 52 at the bottom of the U-shaped frame 54 correspond to the front sides of the monitoring equipment box 11, and the overall volume is reduced. When the monitoring equipment box 11 is moved, it is necessary to prevent the U-shaped frame 54 from extending out of the front of the box base frame 51 uncontrollably, and also to prevent the external monitoring device 4 and the support plate 29 from moving back and forth in the middle of the monitoring equipment box 11. Therefore, tighten the locking bolt 58 so that the locking bolt 58 abuts against the U-shaped frame 54, and the U-shaped frame 54 is locked to the box base frame 51. Since the multi-section telescopic rod 56 cannot move back and forth with the U-shaped frame 54, the external monitoring device 4 and the support plate 29 cannot move back and forth in the middle of the monitoring equipment box 11.

[0042] In use, the quick deployment support frame 2 is used to install the external monitoring device 4 inside the monitoring device box 11. It serves as a support for the external monitoring device 4, allowing it to be stored or deployed quickly. The quick deployment support frame 2 allows the external monitoring device 4 to be quickly extended from the monitoring device box 11 for use. The external monitoring device 4 is used for patient health monitoring. The lower support arm 23 and upper support arm 25, together with the box top plate 21 and the supporting vertical plate 26, form a movable parallelogram structure. When the external monitoring device 4 needs to be used, the support base plate 29 is pulled forward from inside the monitoring device box 11. The support base plate 29 and the external monitoring device 4... As the lower support arm 23 and the upper support arm 25 remain in a horizontal position, once they are in a horizontal position, the support frame positioning and locking mechanism 3 locks the left support vertical plate 26 and the left upper support arm 25. At this time, the support base plate 29 and the external monitoring device 4 no longer move, completing the rapid deployment of the external monitoring device 4. The process of the external monitoring device 4 extending forward from the monitoring device box 11 will also drive the follow-up balance support mechanism 5 to unfold, making the support of the follow-up balance support mechanism 5 for the monitoring device box 11 more stable, and avoiding the instability of the overall structure center of gravity after the external monitoring device 4 extends from the front end of the monitoring device box 11. When the external monitoring device 4 is not needed, the support frame positioning and locking mechanism 3 releases the lock on the left supporting vertical plate 26 and the left upper support arm 25. The external monitoring device 4 is gently lowered by hand. Due to gravity, the external monitoring device 4 and the support base plate 29 gradually descend and retract into the middle of the monitoring device box 11, completing the storage of the external monitoring device 4 and reducing the overall space occupation. During this process, the lower support arm 23 and the upper support arm 25 gradually become vertical, making the unfolding and storage of the external monitoring device 4 convenient and quick. The overall center of gravity is stable during the unfolding process.

[0043] Example 2, please refer to Figures 1 to 13 This embodiment provides a technical solution: a human body management and monitoring system based on an external monitoring device. This embodiment is structurally similar to Embodiment 1, with the difference being: To enhance the monitoring of brain activity, a telescopic deployment mechanism 6 for the top monitoring device and a brain activity monitoring device 7 are also provided. The telescopic deployment mechanism 6 includes a sliding seat 61, a sliding vertical rod 62, a deployment lifting plate 63, guide wheels 64, and a lifting deployment control component. Two sliding seats 61 are fixedly connected to the bottom of each top plate 21 near the center of the monitoring device box 11. A sliding vertical rod 62 is slidably connected to each sliding seat 61. A guide wheel 64 is rotatably installed at the bottom of each sliding vertical rod 62. The tops of the four sliding vertical rods 62 are fixedly connected to the four bottom corners of the deployment lifting plate 63. The brain activity monitoring device 7 is installed on the deployment lifting plate 63. A lifting deployment control component is connected between the two lower support arms 23. A rectangular through slot corresponding to the deployment lifting plate 63 is opened on the top of the monitoring device box 11.

[0044] The lifting deployment control assembly includes a control plate 65, ear seats 66, movable columns 67, and disassembly pins 68. The control plate 65 is located below the two lower support arms 23. The four upper corners of the control plate 65 are fixedly connected to four ear seats 66. The two rear ear seats 66 are movably connected to the rear sides of the two lower support arms 23 through two movable columns 67. The two front ear seats 66 are connected to the pin holes on the front sides of the two lower support arms 23 through two disassembly pins 68.

[0045] When the external monitoring device 4 needs to be taken out of the monitoring device box 11 for use, the two lower support arms 23 swing forward step by step, causing the bottom of the control plate 65 to flip forward step by step to a horizontal state. The control plate 65 first rolls into contact with the guide wheel 64 on the rear side, pushing the sliding vertical rod 62 to slide upward along the sliding seat 61, which can lift the deployment lifting plate 63, thereby lifting the EEG monitoring device 7, allowing the EEG monitoring device 7 to extend out from the rectangular through slot at the top of the monitoring device box 11, making it convenient for the EEG monitoring device 7 to be put into use. After the external monitoring device 4 is deployed in place, the control plate 65 is also in a horizontal state. The deployment lifting plate 63 and the EEG monitoring device 7 are raised to the highest position, and the top surface of the deployment lifting plate 63 is flush with the top surface of the monitoring device box 11. When the external monitoring device 4 is stored, the front ends of the two lower support arms 23 gradually swing downwards, the control plate 65 no longer supports the guide wheel 64, and the EEG monitoring device 7 and the deployment lifting plate 63 descend due to gravity. The EEG monitoring device 7 gradually retracts into the rectangular through slot. When the deployment lifting plate 63 contacts the top of the sliding seat 61, the deployment lifting plate 63 and the EEG monitoring device 7 stop descending. The deployment lifting plate 63 and the EEG monitoring device 7 are located directly above the external monitoring device 4 in the monitoring device box 11, and they will not interfere with each other.

[0046] When deploying external monitoring device 4, it may not be necessary to use EEG monitoring device 7. In this case, pull out the disassembly pin 68. When the bottom of the two lower support arms 23 swings forward, the control plate 65 is always in a vertical state. The control plate 65 will no longer use the guide wheel 64 and the sliding vertical rod 62 to support the lifting plate 63 and EEG monitoring device 7. The deployment of external monitoring device 4 and EEG monitoring device 7 will no longer be linked.

[0047] The EEG monitoring device 7 includes a lifting box 71, a sleeve 72, an EEG monitoring display screen 73, an operating cover 74, and a dynamic EEG monitoring host 75. The sleeve 72 is rotatably installed in the round hole on the lifting plate 63. The lifting box 71 is fixedly connected to the top of the sleeve 72. The display screen 73 is movably connected to the top of the lifting box 71. The operating cover 74 is fixedly connected to the top of the display screen 73. The dynamic EEG monitoring host 75 is arranged on one side inside the lifting box 71. When the EEG monitoring device 7 is raised above the monitoring device box 11, the EEG monitoring display screen 73 and the operation cover 74 are flipped upwards to expose the dynamic EEG monitoring host 75. The dynamic EEG monitoring host 75 can be used to monitor the patient's EEG activity. The matching digital EEG monitoring helmet can be placed in the lifting box 71. The EEG activity can be displayed on the EEG monitoring display screen 73. The sleeve 72 can rotate relative to the deployment lifting plate 63 to change the orientation of the EEG monitoring display screen 73. If necessary, the rotation of the sleeve 72 can also be made to have friction to prevent the sleeve 72 and the lifting box 71 from rotating uncontrollably relative to the deployment lifting plate 63.

[0048] The EEG monitoring display screen 73 covers the top of the lifting box 71. The EEG monitoring display screen 73 and the operation cover 74 are in a horizontal state. When storing, the EEG monitoring device 7 is gradually retracted into the rectangular through slot. The operation cover 74 covers the rectangular through slot at the top of the monitoring device box 11. The upper side of the operation cover 74 forms an operation platform.

[0049] Example 3, please refer to Figures 1 to 13 This embodiment provides a technical solution: a human body management and monitoring system based on an external monitoring device. This embodiment is structurally similar to Embodiment 2, with the difference being: To connect the monitoring equipment box 11 to the hospital bed and allow it to move with the bed, a bed-side fixing component 8 is also provided. The bed-side fixing component 8 includes an adjusting vertical rail 81, an adjusting slide 82, a fastening bolt 83, a limiting base block 84, and a fixing bend plate 85. Adjusting vertical rails 81 are respectively provided on the left and right sides and the rear side of the monitoring equipment box 11. The bottom of the adjusting vertical rail 81 is fixedly connected to the limiting base block 84. An adjusting slide 82 is slidably installed on one of the adjusting vertical rails 81. A fastening bolt 83 is threadedly connected to the adjusting slide 82. The bottom of the adjusting slide 82 is fixedly connected to the fixing bend plate 85. The fastening bolt 83 is a wing bolt for easy turning. As needed, the adjusting slide 82 can be slidably installed on one of the adjusting vertical rails 81, so that the fixed bending plate 85 is aligned with the hollow groove on the side of the bed. Press the adjusting slide 82 down, and the adjusting slide 82 will drive the vertical part of the fixed bending plate 85 to insert into the hollow groove. Then tighten the fastening bolt 83, and the fastening bolt 83 will lock the adjusting slide 82 and the adjusting vertical rail 81, so that the vertical part of the fixed bending plate 85 is firmly inserted into the hollow groove, thus fixing the fixed bending plate 85 and the bed. When transferring patients with the help of the bed, the monitoring equipment box 11 can also be moved. The monitoring equipment box 11 can be easily moved with the bed with the help of casters. During the transfer, the external monitoring device 4 can be used to maintain the health monitoring of the patient.

[0050] To facilitate the operation of the system when it is moved with the hospital bed, a mobile power supply 9 is installed at the bottom center of the monitoring equipment box 11, which can supply power to each monitoring device during the movement.

[0051] It is worth noting that the controller 412 disclosed in the above embodiments is used to control the operation of the dynamic electrocardiograph 411, the pulse oximeter 415 and the dynamic electroencephalogram monitor host 75, and its control method adopts the method commonly used in the prior art.

[0052] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0053] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A body management monitoring system based on an in-vitro monitoring device, comprising a monitoring device container (1) containing a monitoring device case (11), characterized in that, Also includes: The monitoring equipment rapid deployment support frame (2) includes a box top plate (21). Two longitudinal box top plates (21) are fixedly connected to the top sides of the monitoring equipment box (11). The rear bottom of each box top plate (21) is movably connected to the rear end of the lower support arm (23). The front end of each lower support arm (23) is movably connected to the rear bottom of the supporting vertical plate (26). The front top of each box top plate (21) is movably connected to the rear end of the upper support arm (25). The front end of each upper support arm (25) is movably connected to the front top of the supporting vertical plate (26). The tops of the two supporting vertical plates (26) are fixedly connected to the bottom sides of the support base plate (29). The support frame positioning and locking mechanism (3) is installed on the left supporting vertical plate (26); An external monitoring device (4) is installed on a support plate (29); The follow-up balancing support mechanism (5) is installed at the bottom of the monitoring equipment box (11).

2. The body management monitoring system based on an in-vitro monitoring device according to claim 1, characterized in that: The support frame positioning and locking mechanism (3) includes a locking post (31). The middle of the upper support arm (25) on the left side is fixedly connected to the horizontal locking post (31). The side of the support vertical plate (26) on the left side is provided with a longitudinal sliding groove (32). A sliding block (33) is slidably connected in the longitudinal sliding groove (32). The left side of the sliding block (33) is fixedly connected to the front end of the locking seat (38). The slot at the rear end of the locking seat (38) is engaged with the right end of the locking post (31). The right end of the sliding block (33) is fixedly connected to the rear end of the control rod (35). The front end of the control rod (35) is bent downward to form a handle (36). The middle part of the control rod (35) is slidably connected to the guide sleeve (34). The guide sleeve (34) is fixed on the support vertical plate (26). The rod segment of the control rod (35) between the guide sleeve (34) and the sliding block (33) is sleeved with a compression spring (37).

3. The body management monitoring system based on an in-vitro monitoring device according to claim 1, characterized in that: The external monitoring device (4) includes an external monitoring component. A steering sleeve (41) is rotatably installed in the round hole in the middle of the support plate (29). The bottom of the steering sleeve (41) is connected to a steering locking component. The top of the steering sleeve (41) is fixedly connected to the bottom of the steering seat (42). An external monitoring component is installed on the steering seat (42). A cable storage component is installed at the bottom of the support plate (29).

4. The human body management and monitoring system based on external monitoring devices according to claim 3, characterized in that: The external monitoring component includes a dynamic electrocardiograph (411), which is mounted on a steering seat (42). A controller (412) is mounted on the back of the dynamic electrocardiograph (411), and a communication module (413) is mounted on the controller (412). The side of the controller (412) is connected to a pulse oximeter (415) via a cable (414).

5. The human body management and monitoring system based on external monitoring devices according to claim 1, characterized in that: The following balance support mechanism (5) includes a box base frame (51). The bottom of the monitoring equipment box (11) is fixedly connected to the box base frame (51). Two universal wheels (52) are installed on both sides of the bottom rear end of the box base frame (51). The rear ends of two three-section slide rails (53) are connected to both sides of the inner side of the box base frame (51). The front ends of the two three-section slide rails (53) are fixedly connected to both sides of the inner side of the U-shaped frame (54). Two universal wheels (52) are installed on both sides of the bottom front end of the U-shaped frame (54). The rear end of the U-shaped frame (54) is connected to the support plate (26) through the deployment support frame following component. Two locking bolts (58) are threadedly connected to both sides of the front end of the box base frame (51).

6. The human body management and monitoring system based on external monitoring devices according to claim 5, characterized in that: The deployment support frame follow-up component includes a bottom longitudinal groove (55), a multi-section telescopic rod (56), and a telescopic rod seat (57). The bottom ends of two multi-section telescopic rods (56) are fixedly connected to the rear ends of the U-shaped frame (54) respectively. The tops of the two multi-section telescopic rods (56) are fixedly connected to the bottom ends of two supporting vertical plates (26) respectively through two telescopic rod seats (57). Two bottom longitudinal grooves (55) are opened at the bottom of the monitoring equipment box (11) corresponding to the positions of the two multi-section telescopic rods (56).

7. The human body management and monitoring system based on external monitoring devices according to claim 1, characterized in that: It also includes a telescopic deployment mechanism (6) for monitoring equipment on the top of the box and an EEG monitoring device (7). The telescopic deployment mechanism (6) for monitoring equipment on the top of the box includes a sliding seat (61), a sliding vertical rod (62), a deployment lifting plate (63), a guide wheel (64), and a lifting deployment control component. Two sliding seats (61) are fixedly connected to the bottom of each box top plate (21) on the side closest to the center of the monitoring equipment box (11). A sliding vertical rod (62) is slidably connected to each sliding seat (61). A guide wheel (64) is rotatably installed at the bottom of each sliding vertical rod (62). The tops of the four sliding vertical rods (62) are fixedly connected to the four bottom corners of the deployment lifting plate (63). The EEG monitoring device (7) is installed on the deployment lifting plate (63). The lifting deployment control component is connected between the two lower support arms (23).

8. The human body management and monitoring system based on external monitoring devices according to claim 7, characterized in that: The lifting deployment control assembly includes a control plate (65), ear seats (66), movable columns (67), and disassembly pins (68). The control plate (65) is located below the two lower support arms (23). The four upper corners of the control plate (65) are fixedly connected to four ear seats (66). The two rear ear seats (66) are movably connected to the rear of the two lower support arms (23) through two movable columns (67). The two front ear seats (66) are connected to the pin holes on the front of the two lower support arms (23) through two disassembly pins (68).

9. The human body management and monitoring system based on external monitoring devices according to claim 7, characterized in that: The EEG monitoring device (7) includes a lifting box (71), a sleeve (72), an EEG monitoring display screen (73), an operation cover plate (74), and a dynamic EEG monitoring host (75). The sleeve (72) is rotatably installed in the round hole on the lifting plate (63). The lifting box (71) is fixedly connected to the top of the sleeve (72). The display screen (73) is movably connected to the top of the lifting box (71). The operation cover plate (74) is fixedly connected to the top of the display screen (73). The dynamic EEG monitoring host (75) is provided on one side inside the lifting box (71).

10. The human body management and monitoring system based on external monitoring devices according to claim 1, characterized in that: It also includes a bedside fixation component (8), which includes an adjustment rail (81). The monitoring equipment box (11) is provided with adjustment rails (81) on the left, right and rear sides respectively. The bottom of the adjustment rail (81) is fixedly connected to a limiting block (84). An adjustment slide (82) is slidably installed on one of the adjustment rails (81). A fastening bolt (83) is threaded on the adjustment slide (82). A fixing plate (85) is fixedly connected to the bottom of the adjustment slide (82).

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