A portable rapid diagnosis device for abdominal multi-organ injury

Abstract

The present invention discloses a portable rapid diagnosis device for multiple abdominal organs injury, which relates to the field of ultrasonic diagnosis technology, and includes a device installation protection mechanism, a shell cover opening and closing mechanism, and a follow-up diagnosis information processing mechanism. The device installation protection mechanism includes a device shell, and two linkage component cavities are respectively arranged on the left and right sides of the device shell. Two opening and closing linkage components are respectively installed at the rear ends of the two linkage component cavities. The two opening and closing linkage components are respectively connected to the lower sides of the two ends of the shell cover, and each opening and closing linkage component is respectively installed with an opening and closing state maintaining component; the follow-up diagnosis information processing mechanism is installed between the two opening and closing linkage components, and the follow-up diagnosis information processing mechanism is connected to the abdominal injury detection mechanism. The portable rapid diagnosis device for multiple abdominal organs injury is small in size and easy to carry. The coupling agent can be freely added during the process of holding the probe with one hand, and the amount of coupling agent used is easy to control.

Description

Technical Field

[0001] The invention relates to the technical field of ultrasonic diagnosis, in particular to a portable rapid diagnosis device for abdominal multi-organ injury. Background Art

[0002] In the case of high altitude field operations, once a soldier suffers abdominal injury, it is very dangerous because there are multiple important organs in the abdomen. Conditions in field operations are limited. Rapid diagnosis of multiple abdominal organ injuries helps soldiers get timely treatment. In the prior art, abdominal injuries are generally diagnosed using general surgery abdominal ultrasound diagnostic devices. These devices are large in size and are not convenient for field rescue personnel to carry during high-altitude field operations. In addition, the ultrasound probes of general surgery abdominal ultrasound diagnostic devices need to be used in conjunction with medical coupling agents, and the amount of medical coupling agents used is not easy to control. Excessive use will result in waste, while insufficient use will affect the clarity of ultrasound imaging. Summary of the invention

[0003] The technical problem to be solved by the present invention is to overcome the existing defects and provide a portable rapid diagnosis device for abdominal multiple organ injuries. Compared with traditional general surgery abdominal ultrasound diagnostic devices, the device is smaller in size, more convenient to carry, and not easily damaged in field environments. The coupling agent can be freely added during the process of using the probe with one hand, which is conducive to adding small amounts multiple times. The amount of coupling agent used is easy to control, and new coupling agent can also be quickly applied when increasing the abdominal detection range, which can effectively solve the problems in the background technology.

[0004] To achieve the above object, the present invention provides the following technical solution: a portable rapid diagnosis device for abdominal multiple organ injury, comprising a device installation protection mechanism, the device installation protection mechanism comprising a device shell and a shell cover, two linkage component cavities are respectively arranged on the left and right sides of the device shell, and further comprising: The shell cover opening and closing mechanism includes an opening and closing linkage component and an opening and closing state maintaining component. Two opening and closing linkage components are respectively installed at the rear ends of the two linkage component cavities. The two opening and closing linkage components are respectively connected to the lower sides of the two ends of the shell cover. An opening and closing state maintaining component is respectively installed on each opening and closing linkage component. The follow-up diagnosis information processing mechanism is installed between the two opening and closing linkage components, and the follow-up diagnosis information processing mechanism is connected to the abdominal injury detection mechanism, and the abdominal injury detection mechanism is installed with a coupling agent follow-up supply mechanism.

[0005] Furthermore, the opening and closing linkage assembly includes a rear swing rod and a front swing rod, and a vertical plate is respectively installed on the rear side of the cavity of each linkage component, the front bottom of the vertical plate is movably connected to the bottom end of the front swing rod through movable shaft three, the top of the front swing rod is fixedly connected with a transverse follower shaft, and the follower shaft is rotatably connected to the front bottom of the shell cover bracket, the rear top of the vertical plate is movably connected to the bottom end of the rear swing rod through movable shaft one, the top of the rear swing rod is movably connected to the top rear end of the shell cover bracket through movable shaft two, the shell cover bracket is installed on the lower side of the end of the shell cover, the front swing rod and the rear swing rod have the same size, and the front swing rod and the rear swing rod are arranged parallel to each other.

[0006] The shell cover is pushed backward, and the front and rear swing bars swing backward, and the shell cover can be driven to move backward in a horizontal state through the shell cover bracket, until the rear side of the rear swing bar contacts the top of the rear side of the equipment shell and stops, and the opening at the top of the equipment shell is completely opened at this time, no matter how the shell cover moves, as long as the equipment shell is placed horizontally, the shell cover is in a horizontal state, and it is convenient for rescue personnel to place medicines and tools on the shell cover.

[0007] Furthermore, the opening and closing state maintaining component includes a control convex rod, a telescopic rod and an opening and closing control spring. The front side of the bottom end of each rear swing rod is connected to a control convex rod, and the end of the control convex rod is movably connected to the rear end of the telescopic rod through a movable shaft four. The front bottom of the vertical plate is movably connected to the front end of the telescopic rod through a movable shaft five. The outer side of the telescopic rod is sleeved with an opening and closing control spring, and the two ends of the opening and closing control spring are respectively connected to the two ends of the telescopic rod.

[0008] The connection between the control cam and the rear swing bar is in a V-shaped structure. When the rear swing bar swings, it can drive the control cam to move. When the control cam and the telescopic rod are in the same straight line, the telescopic rod is shortened to the shortest state, and the opening and closing control spring is also compressed to the shortest state. At this time, the elastic force of the opening and closing control spring is the largest, that is, it is in a "dead point" state. When the control cam continues to move, the opening and closing control spring can push the control cam to move quickly in the original direction of movement due to its own elastic force until the rear swing bar stops due to the limit factor. At this time, the elastic force of the opening and closing control spring can also maintain the rear swing bar in a stable state, and the shell cover is also in a stable state; When in use: when the shell cover is fully opened and the top opening of the device shell is in the state, pull the shell cover forward, and the shell cover drives the rear swing bar and the front swing bar to swing forward through the shell cover bracket, and the rear swing bar also drives the control convex rod to swing forward synchronously. During this process, the telescopic rod is gradually shortened, and the opening and closing control spring is gradually compressed until the opening and closing control spring is in the "dead point" state, and the rear swing bar continues to swing forward, and the opening and closing control spring passes the "dead point" state, and then the elastic force of the opening and closing control spring accelerates the speed of the rear swing bar and the front swing bar swinging forward until the bottom edge of the shell cover contacts the top edge of the device shell, at which time the opening and closing control spring still has elastic force, allowing the shell cover to stably cover the top opening of the device shell; Push the shell cover backward, and the shell cover drives the rear swing bar and the front swing bar to swing backward through the shell cover bracket, and the rear swing bar also drives the control cam to swing backward synchronously. In this process, the telescopic rod is gradually shortened, and the opening and closing control spring is gradually compressed until the opening and closing control spring is in the "dead point" state, and the rear swing bar continues to swing backward, and the opening and closing control spring crosses the "dead point" state in the opposite direction. Then the elastic force of the opening and closing control spring accelerates the speed at which the rear swing bar and the front swing bar swing backward until the rear side of the rear swing bar contacts the top of the rear side of the equipment shell. At this time, the opening and closing control spring still has elastic force, so that the shell cover is in a stable open state, and the opening and closing state maintaining component thereby realizes the stable maintenance of the opening and closing state of the shell cover.

[0009] Furthermore, the follow-up diagnostic information processing mechanism includes a display and an information processing host, and the two ends of the horizontal axis are respectively fixedly connected to the ends of the two follow-up shafts. A follow-up plate is installed at the bottom of the horizontal axis, and the follow-up plate and two front swing arms are located in the same plane. A rectangular through groove is opened at the right end of the follow-up plate, and a display and an information processing host are installed in the through groove by carrying a shock-absorbing component, and a control panel is installed on the front side of the left end of the follow-up plate.

[0010] Since the follower shaft and the front swing bar are fixedly connected, the follower plate can always be in the same plane with the front swing bar. After the shell cover is opened, the control panel and display on the follower plate follow the front swing bar in a nearly vertical state and slightly tilted backwards. The control panel and display face the field rescue personnel, which is convenient for the field rescue personnel to operate the control panel and observe the display. The shell cover closes the top rear side of the equipment shell. At this time, the control panel and display on the follower plate follow the front swing bar in a nearly horizontal state and are located inside the equipment shell, completing the storage protection of the control panel, information processing host and display in the equipment shell, without the need for additional folding of the control panel, information processing host and The display is easy to operate and use. The output end of the control panel is electrically connected to the input end of the information processing host, and the output end of the information processing host is electrically connected to the input end of the display. The control panel is used to control the operation of the information processing host. The display is used to display the working status of the information processing host and is also used to display the image of ultrasonic flaw detection. The information processing host is used to process the detection information of the probe. Due to the field environment, rescue personnel will inevitably encounter large bumps when carrying this equipment, and the bumps and vibrations can easily damage the information processing host and the display. With the help of carrying a shock-absorbing component, the impact transmitted from the equipment shell to the information processing host and the display can be reduced, which is used to protect the information processing host and the display.

[0011] Furthermore, the portable shock-absorbing component includes a tension spring and a shock-absorbing frame, and four pull rings are respectively arranged at the four corners of the through slot, and the four pull rings are respectively connected to one end of the four tension springs, and the other ends of the four tension springs are respectively connected to the four corners of the shock-absorbing frame, and a display is installed on the front side of the shock-absorbing frame, and an information processing host is installed on the rear side of the shock-absorbing frame. With the help of four tension springs, the shock-absorbing frame is installed in the through slot, and the shock-absorbing frame and the follower plate are no longer rigidly connected, but connected by elastic parts such as tension springs. When the device shell is impacted, it will not be transmitted to the shock-absorbing frame through the follower plate in large quantities, so that the information processing host and the display can be protected.

[0012] Furthermore, the abdominal injury detection mechanism includes a probe cable and a B-type ultrasonic probe, the information processing host is connected to one end of the probe cable, the follower shaft and the transverse axis are both hollow structures, the probe cable passes through the inner side of the transverse axis and the follower shaft in turn, and the probe cable is installed on the side of the front swing bar through a wire clamp, and the other end of the probe cable is connected to the B-type ultrasonic probe, and the two sides of the handheld part of the B-type ultrasonic probe are respectively provided with strip grooves. The probe shell of the B-type ultrasonic probe holds the handheld part and the detection side end, the probe cable passes through the inside of the follower shaft and the transverse axis, and is fixed to the front swing bar through a wire clamp, which can make the probe cable neater and avoid the probe cable being messy in the equipment shell as the follower plate moves. The ultrasonic transducer in the B-type ultrasonic probe works, and then receives the echo, which is processed by the analog signal of the information processing host, and finally the detected image is displayed on the display.

[0013] Further, the coupling agent follow-up supply mechanism includes a coupling agent box, a coupling agent outflow hole and a coupling agent pressurizing and extruding assembly. The coupling agent box is installed on the side of the B-type ultrasonic probe, and the filling port of the coupling agent box is threadedly connected to a filling cap. The coupling agent box is connected to the coupling agent pressurizing and extruding assembly. A shunt pipe is provided on the inner side of the probe housing of the B-type ultrasonic probe. The bottom of the coupling agent box is connected to the shunt pipe. The upper and lower sides of the detection side end of the B-type ultrasonic probe are respectively provided with coupling agent outflow holes, and the coupling agent outflow holes are connected to the shunt pipe. The coupling agent pressurizing and extruding assembly sends air to the coupling agent box for pressurization. The air pressure in the coupling agent box increases, and the coupling agent in the coupling agent box is squeezed out. The coupling agent enters the coupling agent outflow hole through the shunt pipe and finally falls on the abdomen of the injured person. The coupling agent can be evenly applied to the detection position of the abdomen by holding the B-type ultrasonic probe and moving it back and forth. When the B-type ultrasonic probe is used, the detection side end faces downward, so when it is used, the coupling agent pressurizing and extruding assembly is preferably connected to the top of the coupling agent box to avoid too many bubbles mixed in the coupling agent.

[0014] Furthermore, the coupling agent pressurized extrusion assembly includes a pressing block and an inflatable bag. A side slide groove is provided on the side of the handheld part of the B-type ultrasonic probe, and a pressing block is slidably connected in the side slide groove. The inner ends of the side slide groove are respectively connected to the inner ends of the pressing block through two compression springs, and an inflatable bag is installed in the inner middle part of the side slide groove. The inflatable bag is connected to the coupling agent box through a pressurized air pipe, and an exhaust one-way valve is installed on the pressurized air pipe. An air intake one-way valve is also installed on the side of the inflatable bag. The inflatable bag is an inflatable bag used for pumping air, similar to the inflatable bag used in traditional sphygmomanometers, or an inflatable rubber ball. It can be reset by inhaling air after being flattened. Press the pressing block, and the pressing block will retract into the side slide groove. The compression spring will be compressed and shortened, and the inflatable bag will be squeezed. The air in the inflatable bag enters the top of the coupling agent box through the pressurized air pipe and the exhaust one-way valve. The air pressure in the coupling agent box increases, thereby squeezing the coupling agent at the bottom of the coupling agent box into the shunt pipe and the coupling agent outflow hole. Release the pressing block, and the compression spring will extend and reset, allowing the outer end of the pressing block to gradually extend out of the side slide groove. During the resetting process, the inflatable bag inhales air through the intake one-way valve, and the exhaust one-way valve only allows the air in the inflatable bag to enter the coupling agent box through the pressurized air pipe, and does not allow the air to flow reversely in the pressurized air pipe. The intake one-way valve only allows external air to enter the inflatable bag.

[0015] Furthermore, it also includes a probe protection component, the probe protection component includes a rubber protective sleeve and a hole plug, the end of the probe cable close to the B-type ultrasonic probe is sleeved with a rubber ring, the rubber ring is connected to one end of a rubber strip, the other end of the rubber strip is connected to a rubber protective sleeve, the rubber protective sleeve is sleeved with the detection side end of the B-type ultrasonic probe, and the inner side of the rubber protective sleeve is provided with a hole plug corresponding to the position of the coupling agent outflow hole. When the B-type ultrasonic probe is not in use, the rubber protective sleeve can be used to cover the detection side end of the B-type ultrasonic probe to protect the detection side end of the B-type ultrasonic probe. At this time, the hole plug blocks the coupling agent outflow hole to prevent the coupling agent in the coupling agent box from flowing out. When in use, the rubber protective sleeve is removed. Since it is used under field conditions, hastily removing the rubber protective sleeve will cause the rubber protective sleeve to be lost. Therefore, a rubber ring and a rubber strip are provided to connect the rubber protective sleeve to the probe cable. After the rubber protective sleeve is removed, it is not easy to lose, which is convenient for next use.

[0016] Furthermore, it also includes a probe storage mechanism, which includes a storage seat and a probe seat groove. The storage seat is detachably installed in the device shell, and the storage seat is provided with a probe seat groove adapted to the B-type ultrasonic probe. Both sides of the probe seat groove are respectively provided with limiting convex strips that cooperate with the strip groove to engage. After use, the B-type ultrasonic probe is placed in the probe seat groove on the storage seat. The limiting convex strip and the strip groove cooperate to allow the B-type ultrasonic probe to be more stably engaged in the probe seat groove, and avoid shaking so that the B-type ultrasonic probe is separated from the probe seat groove.

[0017] Compared with the prior art, the portable rapid diagnosis device for abdominal multi-organ injury has the following beneficial effects: 1. The device shell is used to install the follow-up diagnostic information processing mechanism and the abdominal injury detection mechanism, and can also protect the follow-up diagnostic information processing mechanism. The opening and closing linkage component in the shell cover opening and closing mechanism can allow the shell cover to open or close the top opening of the device shell. When the device shell is placed horizontally, the opening and closing linkage component allows the shell cover to always remain in a horizontal state during movement, allowing the top of the shell cover to be used as an operating table. In a field environment, rescuers can place tools or medicines on the top of the shell cover. The opening and closing state maintaining component can maintain a stable state after the shell cover opens or closes the top opening of the device shell.

[0018] 2. The abdominal injury detection mechanism is used to detect the organ damage in the abdomen of the injured soldier, and transmit the detected information in the form of electrical signals to the follow-up diagnosis information processing mechanism. The follow-up diagnosis information processing mechanism displays it in the form of images after processing, allowing field rescue personnel to accurately judge the soldier's abdominal injury, which is conducive to rapid diagnosis of soldiers, screening out serious abdominal injuries, and facilitating graded diagnosis and treatment, so that soldiers with serious abdominal injuries can receive corresponding treatment in time.

[0019] 3. The coupling agent follow-up supply mechanism is conducive to the field rescue personnel to freely add coupling agent when holding the probe with one hand, which is conducive to adding small amounts multiple times. The field rescue personnel do not need to pour the coupling agent with their other hand separately, which is conducive to the field rescue personnel to quickly perform diagnostic operations. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 This is a schematic diagram of the structure of a portable rapid diagnosis device for abdominal multi-organ injury of the present invention; Figure 2 For the present invention Figure 1 A schematic diagram of the partially enlarged structure at center A; Figure 3 For the present invention Figure 1 A schematic diagram of the partially enlarged structure at B in the middle; Figure 4 This is a schematic diagram of the rear structure of the portable rapid diagnosis device for abdominal multi-organ injury of the present invention; Figure 5 It is a schematic diagram of the right side structure of the shell cover opening and closing mechanism of the portable rapid diagnosis device for abdominal multiple organ injuries of the present invention; Figure 6 It is a schematic diagram of the left side structure of the shell cover opening and closing mechanism in the portable rapid diagnosis device for abdominal multiple organ injuries of the present invention; Figure 7 It is a partial structural schematic diagram of the portable rapid diagnosis device for abdominal multi-organ injury of the present invention; Figure 8 For the present invention Figure 7 A schematic diagram of the partially enlarged structure at C in the middle; Fig. 9 For the present invention Figure 7 The schematic diagram of the local enlarged structure at D in the middle; Fig.10 It is a schematic diagram of the cross-sectional structure of a B-type ultrasonic probe in the portable rapid diagnosis device for abdominal multiple organ injuries of the present invention; In the figure: 1 equipment installation protection mechanism, 11 equipment shell, 12 partition, 13 anti-interference groove, 14 tool placement box, 15 slide rail, 16 slide cover, 17 shell cover, 18 anti-drop convex edge, 19 buckle groove, 2 shell cover opening and closing mechanism, 21 support, 22 vertical plate, 23 movable axis 1, 24 rear swing rod, 25 movable axis 2, 26 shell cover bracket, 27 follower axis, 28 front swing rod, 29 movable axis 3, 210 control convex rod, 211 movable axis 4, 212 movable axis 5, 213 telescopic rod, 214 opening and closing control spring, 3 follower diagnosis information processing mechanism, 31 horizontal axis, 32 follower plate, 33 control panel, 34 through groove, 35 pull ring, 36 tension spring, 37 shock absorbing frame, 38 display, 39 information processing host, 4 abdominal injury detection mechanism, 41 probe cable, 42 wire clamp, 43 B-type ultrasound probe, 44 strip groove, 5 coupling agent follow-up supply mechanism, 51 coupling agent box, 52 filling cap, 53 coupling agent outflow hole, 54 shunt pipe, 55 side slide groove, 56 compression spring, 57 pressing block, 58 inflatable bag, 59 pressurized air pipe, 510 exhaust check valve, 6 probe protection assembly, 61 rubber ring, 62 rubber strip, 63 rubber protective cover, 64 hole plug, 7 probe storage mechanism, 71 storage seat, 72 disassembly card seat, 73 card block, 74 probe seat groove, 75 limit convex strip, 8 storage winding column, 9 battery, 10 cable. DETAILED DESCRIPTION

[0021] 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.

[0022] For example, see Figures 1 to 10 The present embodiment provides a technical solution: a portable rapid diagnosis device for abdominal multiple organ injuries, including a device installation protection mechanism 1, the device installation protection mechanism 1 includes a device shell 11, a partition 12, an anti-interference groove 13 and a shell cover 17, and two linkage component cavities are separated by two partitions 12 on the left and right sides of the device shell 11, and two anti-interference grooves 13 are respectively provided on the front end tops of the two partitions 12.

[0023] The equipment installation protection mechanism 1 also includes a tool placement box 14, a slide rail 15, a slide cover 16, an anti-dropping protrusion 18, and a buckle groove 19. A tool placement box 14 is arranged on the left side of the bottom of the equipment shell 11. Two slide rails 15 are respectively arranged on the front and rear sides of the top of the tool placement box 14. The front and rear ends of the slide cover 16 are respectively slidably connected to the two slide rails 15. The slide cover 16 is smaller than the tool placement box 14. The slide cover 16 slides left and right along the slide rail 15 to cover different placement cavities on the tool placement box 14. When the entire equipment needs to be stored, hard tools can be placed in a placement cavity, and the slide cover 16 covers the placement cavity, so that the locking member on the slide cover 16 locks the slide cover 16 and the slide rail 15, which can prevent hard tools from being scattered in the equipment shell 11 due to bumps. The locking member can use a locking bolt. The upper edge of the shell cover 17 is provided with an anti-drop convex edge 18, and medicines or tools can be placed on the upper side of the shell cover 17. Even if the equipment shell 11 and the shell cover 17 are tilted in a field environment, the medicines or tools will be blocked by the anti-drop convex edge 18 and will not easily fall from the edge of the shell cover 17. The upper side of the shell cover 17 serves as a temporary operating table, which is conducive to the diagnosis and treatment operations of the rescue personnel in the field environment. Two buckle grooves 19 are provided on the front side of the anti-drop convex edge 18, which facilitate the operation of the shell cover 17.

[0024] It also includes a shell cover opening and closing mechanism 2 and a follow-up diagnosis information processing mechanism 3.

[0025] The shell cover opening and closing mechanism 2 includes an opening and closing linkage component and an opening and closing state maintaining component. Two opening and closing linkage components are respectively installed at the rear ends of the two linkage component cavities. The two opening and closing linkage components are respectively connected to the lower sides of both ends of the shell cover 17. An opening and closing state maintaining component is respectively installed on each opening and closing linkage component. The opening and closing linkage assembly includes a support 21, a vertical plate 22, an active shaft 1 23, a rear swing rod 24, an active shaft 25, a shell cover bracket 26, a follower shaft 27, a front swing rod 28 and an active shaft 3 29. The rear side of each linkage component cavity is fixedly connected to the support 21 by screws, and each support 21 is fixedly connected to a vertical plate 22. The front bottom of the vertical plate 22 is movably connected to the bottom end of the front swing rod 28 through the active shaft 3 29, and the top of the front swing rod 28 is fixedly connected to the front swing rod 28. There is a transverse follower shaft 27, and the follower shaft 27 is rotatably connected to the front bottom of the shell cover bracket 26. The rear top of the vertical plate 22 is movably connected to the bottom end of the rear swing rod 24 through a movable shaft 1 23. The top of the rear swing rod 24 is movably connected to the top rear end of the shell cover bracket 26 through a movable shaft 25. The shell cover bracket 26 is installed on the lower side of the end of the shell cover 17 by screws. The front swing rod 28 and the rear swing rod 24 have the same size, and the front swing rod 28 and the rear swing rod 24 are arranged parallel to each other.

[0026] Since the front swing bar 28 and the rear swing bar 24 are parallel to each other, and the bottoms of the front swing bar 28 and the rear swing bar 24 are movably connected to the vertical plate 22, the front swing bar 28 and the rear swing bar 24 can swing back and forth synchronously, thereby driving the shell cover 17 installed on the shell cover bracket 26 to move back and forth. When the shell cover 17 is pulled forward, the front swing bar 28 and the rear swing bar 24 swing forward, and the shell cover 17 can be driven to move forward in a horizontal state through the shell cover bracket 26. The height of the shell cover 17 gradually decreases during the forward movement until the bottom edge of the shell cover 17 contacts the top edge of the equipment shell 11 and stops. At this time, the shell cover 17 is completed. The top opening of the equipment shell 11 is closed and the anti-interference groove 13 is set so that the partition 12 will not interfere with the movement of the follower shaft 27. The shell cover 17 is pushed backward, and the front swing arm 28 and the rear swing arm 24 swing backward. The shell cover bracket 26 can drive the shell cover 17 to move backward in a horizontal state until the rear side of the rear swing arm 24 contacts the top of the rear side of the equipment shell 11. At this time, the opening at the top of the equipment shell 11 is completely opened. No matter how the shell cover 17 moves, as long as the equipment shell 11 is placed horizontally, the shell cover 17 is in a horizontal state, and the shell cover 17 is convenient for rescue personnel to place medicines and tools.

[0027] The opening and closing state maintaining component includes a control convex rod 210, a movable shaft four 211, a movable shaft five 212, a telescopic rod 213 and an opening and closing control spring 214. The front side of the bottom end of each rear swing rod 24 is integrally connected with the control convex rod 210. The end of the control convex rod 210 is movably connected to the rear end of the telescopic rod 213 through the movable shaft four 211. The front bottom of the vertical plate 22 is movably connected to the front end of the telescopic rod 213 through the movable shaft five 212. The outer side of the telescopic rod 213 is sleeved with an opening and closing control spring 214. The two ends of the opening and closing control spring 214 are respectively connected to the two ends of the telescopic rod 213.

[0028] The connection between the control convex rod 210 and the rear swing rod 24 is in a V-shaped structure. When the rear swing rod 24 swings, it can drive the control convex rod 210 to move. When the control convex rod 210 and the telescopic rod 213 are in the same straight line, the telescopic rod 213 is shortened to the shortest state, and the opening and closing control spring 214 is also compressed to the shortest state. At this time, the elastic force of the opening and closing control spring 214 is the largest, that is, it is in a "dead point" state. The control convex rod 210 continues to move, and the opening and closing control spring 214 can push the control convex rod 210 to move quickly in the original direction of movement due to its own elastic force until the rear swing rod 24 stops due to the limit factor. At this time, the elastic force of the opening and closing control spring 214 can also maintain the rear swing rod 24 in a stable state, and the shell cover 17 is also in a stable state; When in use: when the shell cover 17 fully opens the top opening of the device shell 11, pull the shell cover 17 forward, the shell cover 17 drives the rear swing bar 24 and the front swing bar 28 to swing forward through the shell cover bracket 26, and the rear swing bar 24 also drives the control convex rod 210 to swing forward synchronously. During this process, the telescopic rod 213 is gradually shortened, and the opening and closing control spring 214 is gradually compressed until the opening and closing control spring 214 is in a "dead point" state, the rear swing bar 24 continues to swing forward, the opening and closing control spring 214 passes the "dead point" state, and then the elastic force of the opening and closing control spring 214 accelerates the speed of the rear swing bar 24 and the front swing bar 28 swinging forward until the bottom edge of the shell cover 17 contacts the top edge of the device shell 11, at which time the opening and closing control spring 214 still has elastic force, allowing the shell cover 17 to stably cover the top opening of the device shell 11; The shell cover 17 is pushed backward, and the shell cover 17 drives the rear swing bar 24 and the front swing bar 28 to swing backward through the shell cover bracket 26. The rear swing bar 24 also synchronously drives the control cam 210 to swing backward. During this process, the telescopic rod 213 is gradually shortened, and the opening and closing control spring 214 is gradually compressed until the opening and closing control spring 214 is in the "dead point" state. The rear swing bar 24 continues to swing backward, and the opening and closing control spring 214 crosses the "dead point" state in the opposite direction. Then the elastic force of the opening and closing control spring 214 accelerates the speed at which the rear swing bar 24 and the front swing bar 28 swing backward until the rear side of the rear swing bar 24 contacts the top of the rear side of the device shell 11. At this time, the opening and closing control spring 214 still has elastic force, so that the shell cover 17 is in a stable open state, and the opening and closing state maintaining component thereby realizes the stable maintenance of the opening and closing state of the shell cover 17.

[0029] The follow-up diagnosis information processing mechanism 3 is installed between the two opening and closing linkage components, and the follow-up diagnosis information processing mechanism 3 is connected to the abdominal injury detection mechanism 4, and the abdominal injury detection mechanism 4 is installed with a coupling agent follow-up supply mechanism 5.

[0030] The follow-up diagnostic information processing mechanism 3 includes a horizontal axis 31, a follow-up plate 32, a control panel 33, a through slot 34, a display 38, and an information processing host 39. The two ends of the horizontal axis 31 are respectively fixedly connected to the ends of the two follow-up shafts 27. The follow-up plate 32 is installed at the bottom of the horizontal axis 31. The follow-up plate 32 and the two front swing bars 28 are located in the same plane. A rectangular through slot 34 is opened at the right end of the follow-up plate 32, and a display 38 and an information processing host 39 are installed in the through slot 34 by carrying a shock-absorbing component. The control panel 33 is installed on the front side of the left end of the follow-up plate 32.

[0031] The control panel 33 is used to realize functions such as switching the display 38 and the information processing host 39, selecting the imaging mode, controlling the scanning depth, controlling the focus, and controlling the time gain compensation. The information processing host 39 has an FPGA chip and an ARM9 chip in the prior art. The connection method between the display 38 and the information processing host 39 adopts the prior art, and the connection method between the information processing host 39 and the B-type ultrasound probe 43 also adopts the prior art.

[0032] Since the follower shaft 27 and the front swing bar 28 are fixedly connected, the follower plate 32 can always be in the same plane with the front swing bar 28. After the shell cover 17 is opened, the control panel 33 and the display 38 on the follower plate 32 follow the front swing bar 28 in a nearly vertical state and are slightly tilted backward. The control panel 33 and the display 38 face the field rescue personnel, which is convenient for the field rescue personnel to operate the control panel 33 and observe the display 38. The shell cover 17 closes the top rear side of the equipment shell 11. At this time, the control panel 33 and the display 38 on the follower plate 32 follow the front swing bar 28 in a nearly horizontal state and are located inside the equipment shell 11, completing the storage and protection of the control panel 33, the information processing host 39 and the display 38 in the equipment shell 11, and there is no need for additional folding of the control panel 33, The information processing host 39 and the display 38 are easy to operate and use. The output end of the control panel 33 is electrically connected to the input end of the information processing host 39, and the output end of the information processing host 39 is electrically connected to the input end of the display 38. The control panel 33 is used to control the operation of the information processing host 39. The display 38 is used to display the working status of the information processing host 39 and is also used to display the image of ultrasonic flaw detection. The information processing host 39 is used to process the detection information of the probe. In a field environment, rescue personnel will inevitably experience large bumps when carrying this equipment, and bumps and vibrations can easily damage the information processing host 39 and the display 38. By carrying a shock-absorbing component, the impact transmitted from the device shell 11 to the information processing host 39 and the display 38 can be reduced, which is used to protect the information processing host 39 and the display 38.

[0033] The portable shock-absorbing assembly includes a pull ring 35, a tension spring 36 and a shock-absorbing frame 37. Four pull rings 35 are respectively arranged at the four corners of the through slot 34. The four pull rings 35 are respectively connected to one end of four tension springs 36. The other ends of the four tension springs 36 are respectively connected to the four corners of the shock-absorbing frame 37. A display 38 is installed on the front side of the shock-absorbing frame 37, and an information processing host 39 is installed on the rear side of the shock-absorbing frame 37. With the help of four tension springs 36, the shock-absorbing frame 37 is installed in the through slot 34. The shock-absorbing frame 37 and the follower plate 32 are no longer rigidly connected, but are connected by elastic parts such as tension springs 36. When the device shell 11 is impacted, it will not be transmitted to the shock-absorbing frame 37 through the follower plate 32 in large quantities, so that the information processing host 39 and the display 38 can be protected.

[0034] The abdominal injury detection mechanism 4 includes a probe cable 41, a wire clamp 42, a B-type ultrasonic probe 43 and a strip groove 44. The information processing host 39 is connected to one end of the probe cable 41. The follower shaft 27 and the transverse axis 31 are both hollow structures. The probe cable 41 passes through the inner side of the transverse axis 31 and the follower shaft 27 in turn, and the probe cable 41 is installed on the side of the front swing bar 28 through the wire clamp 42. The other end of the probe cable 41 is connected to the B-type ultrasonic probe 43. The B-type ultrasonic probe 43 has strip grooves 44 on both sides of the handheld part. The probe shell of the B-type ultrasonic probe 43 holds the hand-held part and the detection side end. The probe cable 41 passes through the inside of the follower shaft 27 and the horizontal axis 31, and is fixed to the front swing bar 28 by the wire clamp 42, which can make the probe cable 41 more tidy and avoid the probe cable 41 from being messy in the equipment shell 11 as the follower plate 32 moves. The ultrasonic transducer in the B-type ultrasonic probe 43 works, then receives the echo, and undergoes analog signal processing by the information processing host 39, and finally displays the detected image through the display 38.

[0035] Among them, in order to allow the B-type ultrasound probe 43 to be taken out from the device shell 11 and used freely, the probe cable 41 is generally long, and the probe cable 41 is easy to be messy in the device shell 11 after being stored. Therefore, no less than two storage winding poles 8 are provided on the right side of the device shell 11. After use, the probe cable 41 can be wound around the storage winding poles 8 to keep the probe cable 41 tidy in the device shell 11.

[0036] It also includes a battery 9 and a cable 10. A rechargeable battery 9 is installed in the device shell 11. The battery 9 supplies power to the information processing host 39 and the display 38 through the cable 10. The routing method of the cable 10 can be the same as that of the probe cable 41. The probe cable 41 is passed through another set of follower shafts 27 and the middle of the horizontal axis 31, and the cable 10 is also fixed to the corresponding side of the front swing arm 28 through a wire clamp.

[0037] The coupling agent follow-up supply mechanism 5 includes a coupling agent box 51, a filling cap 52, a coupling agent outflow hole 53, a shunt pipe 54 and a coupling agent pressurized extrusion assembly. The coupling agent box 51 is installed on the side of the B-type ultrasonic probe 43. The filling port of the coupling agent box 51 is threadedly connected with the filling cap 52. The coupling agent can be added through the filling port on the coupling agent box 51 by twisting off the filling cap 52. The coupling agent box 51 is connected to the coupling agent pressurized extrusion assembly. The inner side of the probe shell of the B-type ultrasonic probe 43 is provided with a shunt pipe 54. The bottom of the coupling agent box 51 is connected to the shunt pipe 54. The upper and lower sides of the detection side end of the B-type ultrasonic probe 43 are respectively provided with a plurality of equidistantly distributed coupling agent outflow holes 53. The specific number of the coupling agent outflow holes 53 can be changed as needed. The coupling agent outflow holes 53 are connected to the shunt pipe 54. The coupling agent pressurizing and extruding assembly sends air to pressurize the coupling agent box 51. The air pressure in the coupling agent box 51 increases, and the coupling agent in the coupling agent box 51 is squeezed out. The coupling agent enters the coupling agent outflow hole 53 through the shunt tube 54 and finally falls on the abdomen of the injured person. The coupling agent can be evenly applied to the detection position of the abdomen by holding the B-type ultrasonic probe 43 and moving it back and forth. When the B-type ultrasonic probe 43 is used, the detection side end faces downward. Therefore, when in use, the coupling agent pressurizing and extruding assembly is preferably connected to the top of the coupling agent box 51 to avoid too many bubbles mixed in the coupling agent.

[0038] The coupling agent pressurized extrusion assembly includes a side slide groove 55, a compression spring 56, a pressing block 57, an inflatable bag 58, a pressurized air pipe 59 and an exhaust check valve 510. A side slide groove 55 is provided on the side of the handheld portion of the B-type ultrasonic probe 43. A pressing block 57 is slidably connected in the side slide groove 55. The inner ends of the side slide groove 55 are respectively connected to the inner ends of the pressing block 57 through two compression springs 56, and an inflatable bag 58 is installed in the middle of the inner side of the side slide groove 55. The inflatable bag 58 is connected to the coupling agent box 51 through the pressurized air pipe 59. An exhaust check valve 510 is installed on the pressurized air pipe 59, and an air intake check valve is also installed on the side of the inflatable bag 58. The inflatable bag 58 is an inflatable bag for pumping air, similar to the inflatable bag used in a traditional sphygmomanometer, or an inflatable rubber ball. After being squeezed flat, it can be reset by inhaling air. When the pressing block 57 is pressed, the pressing block 57 is retracted into the side slide groove 55, and the compression spring 56 is compressed and shortened, and the inflatable bag 58 is squeezed. The air in the inflatable bag 58 passes through the pressurized air pipe 59 and the exhaust check valve 510 and enters the top of the coupling agent box 51. The air pressure in the coupling agent box 51 increases, thereby the coupling at the bottom of the coupling agent box 51 is compressed. The mixture is squeezed into the shunt tube 54 and the coupling agent outflow hole 53, the pressing block 57 is released, and the compression spring 56 is extended and reset, so that the outer end of the pressing block 57 gradually extends out of the side slide groove 55. The inflatable bag 58 inhales air through the air intake check valve during the reset process, and the exhaust check valve 510 only allows the air in the inflatable bag 58 to enter the coupling agent box 51 through the pressurized air pipe 59, and does not allow the air to flow back in the pressurized air pipe 59. The air intake check valve only allows external air to enter the inflatable bag 58.

[0039] When in use, the device shell 11 is used to install the follow-up diagnosis information processing mechanism 3 and the abdominal injury detection mechanism 4, and can also protect the follow-up diagnosis information processing mechanism 3. The opening and closing linkage component in the shell cover opening and closing mechanism 2 can allow the shell cover 17 to open or close the top opening of the device shell 11. When the device shell 11 is placed horizontally, the opening and closing linkage component allows the shell cover 17 to always remain in a horizontal state during movement, allowing the top of the shell cover 17 to be used as an operating table. In a field environment, rescuers can place tools or medicines on the top of the shell cover 17. The opening and closing state maintaining component can maintain a stable state after the shell cover 17 opens or closes the top opening of the device shell 11. The abdominal injury detection mechanism 4 is used to detect injuries. The injured soldier's abdominal organ damage is detected, and the detected information is transmitted to the follow-up diagnosis information processing mechanism 3 in the form of electrical signals. The follow-up diagnosis information processing mechanism 3 displays the information in the form of images after processing, so that the field rescue personnel can accurately judge the soldier's abdominal injury, which is conducive to rapid diagnosis of the soldiers, screening out the serious abdominal injuries, and facilitating graded diagnosis and treatment, so that soldiers with serious abdominal injuries can receive corresponding treatment in time. The coupling agent follow-up supply mechanism 5 is conducive to the field rescue personnel to freely add coupling agent during the process of holding the probe with one hand, and is conducive to adding small amounts multiple times, without the field rescue personnel using their other hand to pour the coupling agent separately, which is conducive to the field rescue personnel to quickly perform diagnostic operations.

[0040] For example 2, please refer to Figures 1 to 10 This embodiment provides a technical solution: a portable rapid diagnosis device for abdominal multi-organ injury. The structure of this embodiment is roughly the same as that of the first embodiment, except that: Since the detection end of the B-type ultrasonic probe 43 needs to be kept clean and protected when not in use, a probe protection assembly 6 is provided. The probe protection assembly 6 includes a rubber ring 61, a rubber strip 62, a rubber protective sleeve 63 and a hole plug 64. The end of the probe cable 41 close to the B-type ultrasonic probe 43 is sleeved with the rubber ring 61, the rubber ring 61 is connected to one end of the rubber strip 62, and the other end of the rubber strip 62 is connected to the rubber protective sleeve 63. The rubber protective sleeve 63 is sleeved with the detection side end of the B-type ultrasonic probe 43, and a hole plug 64 is provided on the inner side of the rubber protective sleeve 63 at the position corresponding to the coupling agent outflow hole 53. When the B-type ultrasonic probe 43 is not in use, the rubber protective cover 63 can be used to cover the detection side end of the B-type ultrasonic probe 43 to protect the detection side end of the B-type ultrasonic probe 43. At this time, the hole plug 64 blocks the coupling agent outflow hole 53 to prevent the coupling agent in the coupling agent box 51 from flowing out. The rubber protective cover 63 is removed when in use. Since it is used under field conditions, the rubber protective cover 63 may be lost if it is removed hastily. Therefore, a rubber ring 61 and a rubber strip 62 are provided to connect the rubber protective cover 63 to the probe cable 41. The rubber protective cover 63 is not easily lost after being removed, which is convenient for next use.

[0041] For example 3, please refer to Figures 1 to 10 This embodiment provides a technical solution: a portable rapid diagnosis device for abdominal multi-organ injury. The structure of this embodiment is roughly the same as that of the second embodiment, except that: After the B-type ultrasonic probe 43 is stored in the equipment shell 11, in order to stably place the B-type ultrasonic probe 43 in the equipment shell 11, a probe storage mechanism 7 is also provided. The probe storage mechanism 7 includes a storage seat 71, a probe seat groove 74 and a limiting convex strip 75. The storage seat 71 is detachably installed in the equipment shell 11. The storage seat 71 is provided with a probe seat groove 74 adapted to the B-type ultrasonic probe 43, and limiting convex strips 75 are respectively provided on both sides of the probe seat groove 74 to engage with the strip groove 44.

[0042] Furthermore, the probe storage mechanism 7 also includes a disassembly seat 72 and a block 73. Two blocks 73 are respectively provided on both sides of the storage seat 71. Two disassembly seats 72 are respectively provided on the right side of the device shell 11. The two disassembly seats 72 are respectively engaged with the two blocks 73, thereby realizing the detachable installation of the storage seat 71 in the device shell 11, and facilitating the storage seat 71 to be taken out of the device shell 11 for cleaning.

[0043] After use, place the B-type ultrasonic probe 43 into the probe seat groove 74 on the storage seat 71. The limiting convex strip 75 and the strip groove 44 cooperate to allow the B-type ultrasonic probe 43 to be more stably clamped into the probe seat groove 74 to prevent the B-type ultrasonic probe 43 from shaking and detaching from the probe seat groove 74.

[0044] 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", "comprise" or any other variants 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.

[0045] 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. A portable rapid diagnosis device for abdominal multiple organ injury, comprising a device installation protection mechanism (1), wherein the device installation protection mechanism (1) comprises a device shell (11) and a shell cover (17), wherein two linkage component cavities are respectively arranged on the left and right sides of the device shell (11), and wherein: Also includes: The shell cover opening and closing mechanism (2) comprises an opening and closing linkage component and an opening and closing state maintaining component, the rear ends of the two linkage component cavities are respectively equipped with two opening and closing linkage components, the two opening and closing linkage components are respectively connected to the lower sides of both ends of the shell cover (17), and each opening and closing linkage component is respectively equipped with an opening and closing state maintaining component; The follow-up diagnostic information processing mechanism (3) is installed between the two opening and closing linkage components, and the follow-up diagnostic information processing mechanism (3) is connected to the abdominal injury detection mechanism (4), and the abdominal injury detection mechanism (4) is installed with a coupling agent follow-up supply mechanism (5).

2. The portable rapid diagnosis device for abdominal multiple organ injury according to claim 1 is characterized in that: The opening and closing linkage assembly comprises a rear swing rod (24) and a front swing rod (28), and a vertical plate (22) is respectively installed on the rear side of each linkage component cavity, and the front bottom of the vertical plate (22) is movably connected to the bottom end of the front swing rod (28) through a movable shaft three (29), and the top of the front swing rod (28) is fixedly connected to a transverse follower shaft (27), and the follower shaft (27) is rotatably connected to the front bottom of the shell cover bracket (26), and the rear top of the vertical plate (22) is movably connected to the bottom end of the rear swing rod (24) through a movable shaft one (23), and the top of the rear swing rod (24) is movably connected to the top rear end of the shell cover bracket (26) through a movable shaft two (25), and the shell cover bracket (26) is installed on the lower side of the end of the shell cover (17), and the front swing rod (28) and the rear swing rod (24) have the same size, and the front swing rod (28) and the rear swing rod (24) are arranged parallel to each other.

3. The portable rapid diagnosis device for abdominal multi-organ injury according to claim 2 is characterized in that: The opening and closing state maintaining component comprises a control convex rod (210), a telescopic rod (213) and an opening and closing control spring (214); the front side of the bottom end of each rear swing rod (24) is connected to the control convex rod (210); the end of the control convex rod (210) is movably connected to the rear end of the telescopic rod (213) via a movable shaft four (211); the front bottom of the vertical plate (22) is movably connected to the front end of the telescopic rod (213) via a movable shaft five (212); the outer side of the telescopic rod (213) is sleeved with an opening and closing control spring (214); and the two ends of the opening and closing control spring (214) are respectively connected to the two ends of the telescopic rod (213).

4. The portable rapid diagnosis device for abdominal multi-organ injury according to claim 2 is characterized in that: The follow-up diagnostic information processing mechanism (3) includes a display (38) and an information processing host (39). The two ends of the horizontal axis (31) are respectively fixedly connected to the ends of the two follow-up axes (27). A follow-up plate (32) is installed at the bottom of the horizontal axis (31). The follow-up plate (32) and the two front swing bars (28) are located in the same plane. A rectangular through slot (34) is opened at the right end of the follow-up plate (32). The display (38) and the information processing host (39) are installed in the through slot (34) by carrying a shock absorbing component. A control panel (33) is installed on the front side of the left end of the follow-up plate (32).

5. The portable rapid diagnosis device for abdominal multiple organ injury according to claim 4 is characterized in that: The portable shock-absorbing component comprises a tension spring (36) and a shock-absorbing frame (37); four pull rings (35) are respectively arranged at the four corners of the through slot (34); the four pull rings (35) are respectively connected to one end of four tension springs (36); the other ends of the four tension springs (36) are respectively connected to the four corners of the shock-absorbing frame (37); a display (38) is installed on the front side of the shock-absorbing frame (37); and an information processing host (39) is installed on the rear side of the shock-absorbing frame (37).

6. The portable rapid diagnosis device for abdominal multiple organ injury according to claim 4 is characterized in that: The abdominal injury detection mechanism (4) comprises a probe cable (41) and a type B ultrasonic probe (43); the information processing host (39) is connected to one end of the probe cable (41); the follower shaft (27) and the transverse shaft (31) are both hollow structures; the probe cable (41) passes through the inner sides of the transverse shaft (31) and the follower shaft (27) in sequence; the probe cable (41) is installed on the side of the front swing bar (28) via a wire clamp (42); the other end of the probe cable (41) is connected to the type B ultrasonic probe (43); and strip grooves (44) are respectively provided on both sides of the handheld portion of the type B ultrasonic probe (43).

7. The portable rapid diagnosis device for abdominal multiple organ injury according to claim 6 is characterized by: The coupling agent follower supply mechanism (5) comprises a coupling agent box (51), a coupling agent outflow hole (53) and a coupling agent pressurizing and extruding assembly. The coupling agent box (51) is installed on the side of the B-type ultrasonic probe (43). The filling port of the coupling agent box (51) is threadedly connected to a filling cap (52). The coupling agent box (51) is connected to the coupling agent pressurizing and extruding assembly. A shunt pipe (54) is provided on the inner side of the probe shell of the B-type ultrasonic probe (43). The bottom of the coupling agent box (51) is connected to the shunt pipe (54). The upper and lower sides of the detection side end of the B-type ultrasonic probe (43) are respectively provided with coupling agent outflow holes (53), and the coupling agent outflow holes (53) are connected to the shunt pipe (54).

8. The portable rapid diagnosis device for abdominal multiple organ injury according to claim 7 is characterized in that: The coupling agent pressurizing and extruding assembly comprises a pressing block (57) and an inflatable bag (58); a side sliding groove (55) is provided on the side of the hand-held portion of the B-type ultrasonic probe (43); a pressing block (57) is slidably connected in the side sliding groove (55); two inner ends of the side sliding groove (55) are connected to two inner ends of the pressing block (57) via two compression springs (56), and an inflatable bag (58) is installed in the middle of the inner side of the side sliding groove (55); the inflatable bag (58) is connected to the coupling agent box (51) via a pressurizing air pipe (59); and an exhaust check valve (510) is installed on the pressurizing air pipe (59).

9. The portable rapid diagnosis device for abdominal multiple organ injury according to claim 7 is characterized in that: The invention also comprises a probe protection assembly (6), wherein the probe protection assembly (6) comprises a rubber protective sleeve (63) and a hole plug (64); one end of the probe cable (41) close to the B-type ultrasonic probe (43) is sleeved with a rubber ring (61); the rubber ring (61) is connected to one end of a rubber strip (62); the other end of the rubber strip (62) is connected to the rubber protective sleeve (63); the rubber protective sleeve (63) is sleeved with the detection side end of the B-type ultrasonic probe (43); and a hole plug (64) is provided on the inner side of the rubber protective sleeve (63) at a position corresponding to the coupling agent outflow hole (53).

10. The portable rapid diagnosis device for abdominal multiple organ injury according to claim 6, characterized in that: The device also comprises a probe storage mechanism (7), the probe storage mechanism (7) comprising a storage seat (71) and a probe seat groove (74), the storage seat (71) being detachably mounted in the device shell (11), the storage seat (71) being provided with a probe seat groove (74) adapted to a B-type ultrasonic probe (43), and limiting convex strips (75) respectively being provided on both sides of the probe seat groove (74) and being engaged with the strip groove (44) and being snap-fitted therewith.

Images