Portable sudden cardiac arrest clinical first-aid equipment

Abstract

The invention provides portable sudden cardiac arrest clinical first-aid equipment. The portable sudden cardiac arrest clinical first-aid equipment structurally comprises a splicing structure, a host, an electric shock device, a communicating spool and a control panel, the splicing structure is arranged at the back part of the main machine, and the middle lower part of the surface of the main machine is connected with an electric shock device and is electrically connected with a control panel through a communication spool; on the basis of a splicing structure additionally arranged on the back of the main machine, the two sides of the linear rail can be covered through the limiting blocks on the edges of the connecting plates, and then a fixing body is inserted from the side edge of the stretcher to slide in a parallel sliding-in mode according to the rectangular shape in combination with the auxiliary blocks in the linear rail; after a vertical groove in the center of a solid block of the fixing body is aligned with the center of the lower layer of the stretcher, an adsorption block is pushed in through a plastic shell, and the effects of fixed connection with the stretcher and mutual restraining of a limiting block are achieved, so that the first-aid equipment is combined with the stretcher to achieve the convenient effect; the emergency equipment is located in the center of the lower layer of the stretcher without affecting normal folding of the stretcher.

Description

Technical Field

[0001] The invention relates to the technical field of portable medical devices, and more specifically to a portable clinical emergency device for cardiac arrest. Background Art

[0002] Cardiac arrest refers to the sudden cessation of the heart's ejection function, the disappearance of the large artery pulsation and heart sounds. When a patient suddenly suffers from cardiac arrest, medical staff can use relevant emergency equipment (external defibrillator) to treat the patient's heart. Regular compression can stimulate the heart's sinoatrial node, and at the same time, use current within the medical range to stimulate the heart. Therefore, by stimulating the heart, the heart can be effectively restored to beat, completing the emergency process. In summary, the inventors have found that the existing clinical emergency equipment mainly has the following defects: when a patient suffers from sudden cardiac arrest outdoors, medical staff need to use a stretcher to stably support and transport the patient. During this process, the current emergency equipment cannot be assembled and used with the stretcher, making it impossible to perform effective emergency operations on the patient during transportation, which can easily cause delays in rescue. At the same time, the emergency equipment will not meet the characteristics of being portable, which will reduce the convenience of using the current emergency equipment. Summary of the invention

[0003] The technical solution adopted by the present invention to achieve the technical purpose is: a portable clinical emergency equipment for cardiac arrest, whose structure includes: a splicing structure, a main unit, a defibrillator, a connecting wire shaft, and a control panel; the splicing structure is arranged on the back of the main unit and the defibrillator is connected to the lower middle part of the main unit surface and is electrically connected to the control panel through the connecting wire shaft.

[0004] As a further improvement of the present invention, the splicing structure is provided with a fixed body, auxiliary blocks are connected to both sides of the fixed body and are installed together in the linear rail, the linear rail is transversely opened in the center of the connecting plate and is connected to the limit blocks on both sides.

[0005] As a further improvement of the present invention, the fixed body is provided with a card slot, which is arranged on both sides of the edge of the solid block and a vertical slot is opened in the center of the solid block to allow the adsorption block to pass through. The edge and upper end of the adsorption block are covered by a plastic shell, and its bottom is exposed to the outside and passes through the vertical slot to penetrate the center of the solid block and contact with the bottom of the stretcher.

[0006] As a further improvement of the present invention, the limit blocks on both sides of the connecting plate of the splicing structure and the auxiliary blocks and fixed bodies in the linear rails are inserted into the middle part of the stretcher in a parallel orientation, and then the solid block of the fixed body can fix the auxiliary block through the card slot to ensure that the center of the vertical slot can be aligned with the center of the bottom layer of the stretcher. Finally, the adsorption block is adsorbed on the bottom layer of the stretcher by pushing the plastic shell inward, and the equipment is fixed to the bottom center of the stretcher in combination with the insertion of the limit blocks.

[0007] As a further improvement of the present invention, the splicing structure covers the back of the main unit and the electric shock device of the main unit is provided with two sets of adaptable two interconnected spools, and a rechargeable independent battery is also mounted inside the main unit.

[0008] As a further improvement of the present invention, the limit blocks of the connecting plate are in the form of protrusions with spacing therebetween forming a linear rail, two groups of fixed bodies are mounted inside the linear rail and the edges of the fixed bodies are provided with solid trapezoidal auxiliary blocks.

[0009] As a further improvement of the present invention, the card slot is provided with a position for determining the auxiliary block on both sides of the solid block, the area range of the vertical slot is consistent with the area of ​​the adsorption block and the plastic shell after combination, and a pushing block is provided on the top of the plastic shell.

[0010] As a further improvement of the present invention, the connecting wire shaft is provided with a rotating body, the center of the surface of the rotating body is limited by the lower end of the bearing and the upper end of the bearing is connected to an insulating sleeve, the center of the insulating sleeve is passed through by the conductive shaft, so that the conductive shaft can penetrate the center of the bearing and be electrically connected to the output block at the lower end of the rotating body, and the upper end of the conductive shaft is also connected to a locking block.

[0011] As a further improvement of the present invention, the locking block and the output block are both provided with threaded patterns on the outside, the rotating body and the bearing are perpendicular to each other, and a penetrating cavity is opened in the center of the insulating sleeve to allow the conductive shaft to pass through.

[0012] As a further improvement of the present invention, the rotating body is provided with a control ring, the inner wall of the control ring is provided with a connecting piece, the edge of the wheel is fixed by the connecting piece, an auxiliary ring is provided in the center area of ​​the wheel, which is matched with the lower end of the bearing, and the center of the wheel is penetrated by a penetrating groove to allow the conductive shaft to penetrate and enter to be electrically connected with the output block.

[0013] As a further improvement of the present invention, the control ring is made of rubber and has multiple semicircular grooves on its edge, and the edge of the rotating wheel is fixed and covered by an internal plastic connector. The auxiliary ring at the center of the rotating wheel carries small balls that contact the balls inside the bearing, and the penetrating groove is circular in shape and matches the shape of the conductive shaft.

[0014] As a further improvement of the present invention, the electric shock device is provided with a supporting connecting body, the lower end of the supporting connecting body is fixedly connected to the edge of the protrusion and the protrusion overlaps with the surface center of the electrode sheet, and a connecting groove is opened in the center of the protrusion to communicate with the center of the electrode sheet. The electrode sheet can be embedded in the storage cavity and overlap with the positioning frame. The upper and lower ends of the positioning frame are also provided with restraining rods, and the restraining rods can penetrate into the supporting connecting body to store and position the electrode sheet.

[0015] As a further improvement of the present invention, the restraining rod is provided at the upper and lower ends of the positioning frame and is interlaced and connected with the upper and lower end supporting connecting bodies of the electrode sheet. The storage cavity is square in shape and matches the shape of the electrode sheet. The connecting groove with the protrusion as the center carries an internal thread that matches the external thread of the output block.

[0016] As a further improvement of the present invention, the support connector is provided with a welding plug, which is vertically installed on the left and right sides of the upper layer of the parallel block and a slot is opened in the center of the parallel block extending to the inner area of ​​the lower support rod. The lower end of the support rod is also equipped with a welding plate.

[0017] As a further improvement of the present invention, the welding plug is in an upright shape and is arranged in a symmetrical position on both sides of the upper end of the parallel block, so that the parallel block can be parallel to the inner wall area of ​​the electrode sheet, the support rod and the parallel block are perpendicular to each other and the restraining rod is inserted in a vertical position through the slot.

[0018] Compared with the prior art, the present invention has the following beneficial effects: 1. The present invention is based on the splicing structure added to the back of the main machine. The limit blocks on the edge of the connecting plate can cover both sides of the linear rail. Then, according to the rectangular shape and the internal auxiliary blocks of the linear rail, the fixed body is inserted and slid from the side of the stretcher in a parallel sliding manner. Then, after the vertical groove in the center of the solid block of the fixed body is aligned with the center of the lower layer of the stretcher, the adsorption block is pushed in through the plastic shell to achieve a fixed connection with the stretcher and a mutual restraint effect of the limit blocks, so that the first aid equipment is combined with the stretcher to achieve a convenient effect. At the same time, the first aid equipment is located in the center of the lower layer of the stretcher and will not affect the normal folding of the stretcher, thereby improving the convenience of the use of the first aid equipment.

[0019] 2. The present invention is further improved on the interconnecting wire shaft. The insulating sleeve can ensure that the conductive shaft will not leak electricity when powered on, thereby improving the safety factor during first aid. The bearing at the lower end can be driven by the wheel of the rotating body, thereby improving the parallel flow of the wheel at the lower end of the insulating sleeve, and then driving the output block to connect with the defibrillator, so that the defibrillator and the interconnecting wire shaft can be detachable. Therefore, the two can be separated when idle, preventing the interconnecting wire shaft from being in a state of bending, extrusion and stress, which causes accelerated aging and unstable power supply during subsequent use, thereby effectively improving the overall stability of the first aid equipment.

[0020] 3. The present invention is a further improvement of the defibrillator. Based on the positioning frame carried on the side of the main unit, after the electrode sheet is used up and separated from the connecting wire shaft, it can be embedded in parallel in the storage cavity. Then, by vertically inserting the two restraining rods equipped with the positioning frame, the internal support connecting body can be interlaced and overlapped with it. For this reason, the internal slots of the support connecting body will be filled with the restraining rods to achieve the effect of mutual restraint, ensuring that the electrode sheet can be stably positioned in the storage cavity, preventing automatic falling off when the stretcher is unfolded and used, thereby achieving the effect of easy disassembly and use. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 The present invention is a structural schematic diagram of a portable clinical emergency device for cardiac arrest.

[0022] Figure 2 The present invention is a schematic diagram of a cross-sectional structure after improvement of a splicing structure.

[0023] Figure 3 The present invention is a schematic diagram of a three-dimensional structure of an improved fixed body.

[0024] Figure 4 The present invention is a schematic diagram of the three-dimensional structure of an improved interconnecting spool.

[0025] Figure 5 The present invention is a schematic diagram of the structure of a rotating body after improvement, viewed from above.

[0026] Figure 6 The present invention is a schematic diagram of the structure of a sectional view of an improved electric shock device.

[0027] Figure 7 The present invention is a schematic diagram of a three-dimensional structure of an improved supporting connector.

[0028] In the figure: splicing structure-1, main unit-2, electric shock device-3, connecting spool-4, control panel-5; Connecting plate-11, limiting block-12, linear rail-13, auxiliary block-14, fixed body-15; Card slot-151, solid block-152, vertical slot-153, adsorption block-154, plastic shell-155; Locking block 41, conductive shaft 42, insulating sleeve 43, bearing 44, rotating body 45, output block 46; Control ring-451, connecting piece-452, rotating wheel-453, auxiliary ring-454, penetrating groove-455; Restraining rod 31, positioning frame 32, storage cavity 33, electrode sheet 34, supporting connecting body 35, protrusion 36, connecting groove 37; Welding plug-in block-351, parallel block-352, slot-353, support rod-354, welding sheet-355. DETAILED DESCRIPTION

[0029] The present invention is further described below in conjunction with the accompanying drawings: Example

[0030] Figures 1 to 7 As shown: The present invention provides a portable clinical emergency device for cardiac arrest. Its structure includes a splicing structure 1, a main unit 2, an electric shock device 3, a connecting wire shaft 4, and a control panel 5; the splicing structure 1 is arranged on the back of the main unit 2 and the electric shock device 3 is connected to the lower middle part of the surface of the main unit 2 and is electrically connected to the control panel 5 through the connecting wire shaft 4.

[0031] The splicing structure 1 is provided with a fixing body 15 , which is connected with auxiliary blocks 14 on both sides and is installed together in a linear rail 13 . The linear rail 13 is transversely opened in the center of the connecting plate 11 and communicates with the limit blocks 12 on both sides.

[0032] The fixing body 15 is provided with a card slot 151, and the card slot 151 is arranged on both sides of the edge of the solid block 152, and a vertical groove 153 is opened in the center of the solid block 152 to allow the adsorption block 154 to penetrate. The edge and the upper end of the adsorption block 154 are covered by a plastic shell 155, and the bottom thereof is exposed to the outside and penetrates the center of the solid block 152 through the vertical groove 153 to contact with the bottom of the stretcher.

[0033] Among them, the limit blocks 12 on both sides of the connecting plate 11 of the splicing structure 1 and the auxiliary block 14 and the fixed body 15 in the linear rail 13 are inserted into the middle part of the stretcher in a parallel orientation, and then the solid block 152 of the fixed body 15 can fix the auxiliary block 14 through the card slot 151, and make sure that the center of the vertical slot 153 can be aligned with the center of the bottom layer of the stretcher. Finally, the adsorption block 154 is adsorbed on the bottom layer of the stretcher by pushing the plastic shell 155 inward, and the equipment is fixed to the center of the bottom of the stretcher by combining the insertion of the limit block 12.

[0034] The splicing structure 1 covers the back of the host 2 and the electric shock device 3 of the host 2 is provided with two sets of two interconnecting wire shafts 4, and the host 2 is also equipped with a rechargeable independent battery.

[0035] The limiting blocks 12 of the connecting plate 11 are in the form of protrusions, and the spacing between them forms a linear rail 13 . Two groups of fixing bodies 15 are mounted inside the linear rail 13 , and the edges of the fixing bodies 15 are all provided with solid trapezoidal auxiliary blocks 14 .

[0036] The card slot 151 is provided with a position for determining the auxiliary block 14 on both sides of the solid block 152, and the area of ​​the vertical slot 153 matches the area of ​​the adsorption block 154 and the plastic shell 155 after combination, and a push block is provided on the top of the plastic shell 155.

[0037] Among them, the connecting wire shaft 4 is provided with a rotating body 45, the surface center of the rotating body 45 is limited by the lower end of the bearing 44 and the upper end of the bearing 44 is connected to an insulating sleeve 43, and the center of the insulating sleeve 43 is penetrated by the conductive shaft 42, so that the conductive shaft 42 can penetrate the center of the bearing 44 and be electrically connected to the output block 46 at the lower end of the rotating body 45, and the upper end of the conductive shaft 42 is also connected to a locking block 41.

[0038] The locking block 41 and the output block 46 are both provided with threaded patterns on their exteriors, the rotating body 45 and the bearing 44 are perpendicular to each other, and a through cavity is opened in the center of the insulating sleeve 43 for the conductive shaft 42 to pass through.

[0039] Among them, the rotating body 45 is provided with a control ring 451, and the inner wall of the control ring 451 is provided with a connecting piece 452, and the edge of the rotating wheel 453 is fixed by the connecting piece 452. The center area of ​​the rotating wheel 453 is provided with an auxiliary ring 454, which is consistent with the lower end of the bearing 44, and the center of the circle is penetrated by a penetrating groove 455, so that the conductive shaft 42 can penetrate and enter to be electrically connected with the output block 46.

[0040] Among them, the control ring 451 is made of rubber and has multiple semicircular grooves on its edge. The edge of the rotating wheel 453 is fixed and covered by an internal plastic connector 452. The auxiliary ring 454 at the center of the rotating wheel 453 carries small balls that contact the balls inside the bearing 44. The penetrating groove 455 is circular in shape and matches the shape of the conductive shaft 42.

[0041] Among them, the electric shock device 3 is provided with a supporting connecting body 35, the lower end of the supporting connecting body 35 is fixedly connected to the edge of the protrusion 36 and the protrusion 36 overlaps with the surface center of the electrode sheet 34. The center of the protrusion 36 is also opened with a connecting groove 37 which is connected to the center of the electrode sheet 34. The electrode sheet 34 can be embedded in the storage cavity 33 and overlap with the positioning frame 32. The upper and lower ends of the positioning frame 32 are also provided with restraining rods 31. The restraining rods 31 can penetrate into the supporting connecting body 35 to store and position the electrode sheet 34.

[0042] Among them, the restraining rod 31 is provided with a restraining rod at the upper and lower ends of the positioning frame 32 and is inserted and connected with the upper and lower end supporting connecting bodies 35 of the electrode sheet 34. The storage cavity 33 is square in shape and matches the shape of the electrode sheet 34. The connecting groove 37 with the protrusion 36 as the center carries an internal thread that matches the external thread of the output block 46.

[0043] Among them, the support connector 35 is provided with a welding plug 351, which is vertically installed on the left and right sides of the upper layer of the parallel block 352 and a slot 353 is opened in the center of the parallel block 352 to extend to the inner area of ​​the lower support rod 354. The lower end of the support rod 354 is also equipped with a welding plate 355.

[0044] Among them, the welding plug 351 is in an upright shape and is arranged in a symmetrical position on both sides of the upper end of the parallel block 352, so that the parallel block 352 can be parallel to the inner wall area of ​​the electrode sheet 34, and the support rod 354 and the parallel block 352 are perpendicular to each other and the restraining rod 31 is inserted in a vertical position through the slot 353.

[0045] Specific functions and operation procedures of this embodiment: In the present invention, the host 2 of the portable clinical emergency equipment for cardiac arrest can be installed at the lower center of the emergency stretcher through the splicing structure 1. When a patient is found to have cardiac arrest outdoors, the patient is first lifted onto the stretcher to lie flat, and then the connecting wire shaft 4 is connected to the defibrillator 3, which is then started using the control panel 5. The defibrillator 3 can then provide a stable current from outside the patient's body for rescue, thereby providing clinical rescue to the patient in the first place, replacing the original method of pushing the patient to an area equipped with emergency equipment for rescue via a stretcher. This process cannot achieve the situation of providing rescue in the first place, and at the same time cannot make the emergency equipment portable. Therefore, the overall device can be effectively used with greater ease of use and greater portability. At the same time, because the device is located at the bottom of the stretcher, The center of the layer will not affect the normal folding and storage of the stretcher. For this reason, the connecting plate 11 of the splicing structure 1 can generate a straight rail 13 through the spacing of the limit blocks 12 on both sides, and then the surface of the straight rail 13 will be equipped with mutually symmetrical auxiliary blocks 14 and fixed bodies 15. For this reason, when the connecting plate 11 is inserted and slid from the center of the side of the stretcher in combination with the limit block 12, the fixed body 15 and the auxiliary block 14 can slide linearly in the center of the lower layer of the stretcher. When the vertical groove 153 of the solid block 152 of the fixed body 15 is aligned with the center of the lower layer of the stretcher, the plastic shell 155 is used to push the adsorption block 154 so that the side of the adsorption block 154 that is connected to the center of the lower layer of the stretcher can be adsorbed and fixed thereto. At the same time, combined with the restraint of the limit block 12, the main machine 2 and other components can be firmly installed in the center of the lower layer of the stretcher. On the contrary, when disassembly is required, the adsorption block 154 can be pulled out and reset through the plastic shell 155, and the entire device can be disassembled from the stretcher by pulling in the opposite direction, and then the solid block 152 can be connected to the auxiliary block 14 through the slot 151. According to the symmetrical trapezoidal shape of the auxiliary block 14, it can be inserted into the connecting plate 11 from either side of the stretcher to form a stable linear sliding, and then the insulating sleeve 34 of the connecting shaft 4 can cover the conductive shaft 42, and then the locking block 41 at the upper end of the conductive shaft 42 can be installed on the lower end of the main machine 2 by threaded connection, and at the same time, the bearing 44 at the lower end can restrain the center of the rotating body 45, so that the output block 46 at the lower end of the rotating body 45 can be connected with the electric shock device 3 through the external thread, and for this purpose, the control ring 44 of the rotating body 45 is used. When 51 drives the connecting piece 452 and the rotating wheel 453 to rotate, the auxiliary ring 454 can combine with the bearing 44 to drive the conductive shaft 42 of the penetration groove 455 to rotate, and finally the output block 46 is locked into the electric machine 3 to make a quick electrical connection with it. During the process, the insulating sleeve 43 can be used to prevent leakage when powered on. At the same time, according to the easy disassembly and assembly of the electric shock device 3, the convenience of disassembly or assembly of the two can be improved, and the power supply instability caused by the accelerated aging of the connecting shaft 4 due to the long-term bending and extrusion force when the equipment is idle can be prevented, so that the stable first aid effect of the electric shock device 3 can be effectively improved. Finally, the electric shock device 3 can first be installed with a positioning frame 32 on the main unit 2, and then the positioning frame 32 provides a storage cavity 33 for the electrode sheet 34 to be embedded.At the same time, the two restraining rods 31 outside the positioning frame 32 can penetrate the upper and lower parts of the positioning frame 32, and then enter the slot 353 area of ​​the supporting connector 35 inside the electrode sheet 34. Then, after the parallel block 352 of the supporting connector 35 and the internal slot 353 of the supporting rod 354 are filled with the restraining rod 31, it can be ensured that the electrode sheet 34 can be stably stored in the positioning frame 32, avoiding the occurrence of automatic falling off. Then, the electrode sheet 34 can be electrically connected to the output block 46 of the connecting shaft 4 through the central protrusion 36 and the connecting groove 37, so that the electrode sheet 34 can be normally powered on for rescue use. Then, the parallel blocks 352 of the supporting connector 35 can be stably welded to the inner wall area of ​​the electrode sheet 34 through the welding plugs 351 on both sides of the upper end. At the same time, the lower end support rod 354 can be welded to the protrusion 36 and the connecting area of ​​the electrode sheet 34 through the welding sheet 355, indirectly improving the connection firmness effect between the electrode sheet 34 and the protrusion 36, thereby effectively improving the ease of use and storage of the overall components. ,

[0046] Utilizing the technical solution of the present invention, or those skilled in the art designing similar technical solutions inspired by the technical solution of the present invention to achieve the above-mentioned technical effects, all fall within the protection scope of the present invention.

Claims

1. A portable clinical emergency device for cardiac arrest, comprising: A splicing structure (1), a main unit (2), an electric shock device (3), a connecting wire shaft (4), and a control panel (5); the splicing structure (1) is arranged on the back of the main unit (2), and the electric shock device (3) is connected to the middle and lower part of the surface of the main unit (2) and is electrically connected to the control panel (5) through the connecting wire shaft (4), characterized in that: The splicing structure (1) is provided with a fixed body (15), the fixed body (15) is connected to auxiliary blocks (14) on both sides and is installed together in a linear rail (13), the linear rail (13) is opened transversely at the center of the connecting plate (11) and is connected to the limit blocks (12) on both sides; The fixing body (15) is provided with a card slot (151), the card slot (151) is arranged on both sides of the edge of the solid block (152), and a vertical slot (153) is opened in the center of the solid block (152) to allow the adsorption block (154) to penetrate, the edge and the upper end of the adsorption block (154) are covered by a plastic shell (155), and the bottom thereof is exposed to the outside and penetrates the center of the solid block (152) through the vertical slot (153) to contact with the bottom of the stretcher; The limiting blocks (12) on both sides of the connecting plate (11) of the splicing structure (1) and the auxiliary block (14) in the linear rail (13) and the fixing body (15) are inserted into the middle part of the stretcher in a parallel orientation, and then the solid block (152) of the fixing body (15) can fix the auxiliary block (14) through the slot (151), and ensure that the center of the vertical slot (153) can be aligned with the center of the bottom layer of the stretcher. Finally, the adsorption block (154) is adsorbed on the bottom layer of the stretcher by pushing the plastic shell (155) inward, and the device is fixed to the center of the bottom of the stretcher in combination with the insertion of the limiting blocks (12).

2. A portable cardiac arrest clinical emergency equipment according to claim 1, characterized in that: The splicing structure (1) covers the back of the main unit (2), and the electric shock device (3) of the main unit (2) is provided with two sets of two interconnecting wire shafts (4), and a rechargeable independent battery is also installed inside the main unit (2).

3. A portable cardiac arrest clinical emergency equipment according to claim 1, characterized in that: The limiting blocks (12) of the connecting plate (11) are in the form of protrusions, and the spacing between them forms a linear rail (13). Two groups of fixed bodies (15) are mounted inside the linear rail (13), and the edges of the fixed bodies (15) are all provided with solid trapezoidal auxiliary blocks (14).

4. A portable cardiac arrest clinical emergency equipment according to claim 1, characterized in that: The card slot (151) is provided with a position for determining the auxiliary block (14) on both the left and right sides of the solid block (152); the area range of the vertical slot (153) matches the area of ​​the adsorption block (154) and the plastic shell (155) after combination; and a push block is provided on the top of the plastic shell (155).

5. The portable cardiac arrest clinical emergency equipment according to claim 1, characterized in that: The connecting line shaft (4) is provided with a rotating body (45), the center of the surface of the rotating body (45) is limited by the lower end of the bearing (44), and the upper end of the bearing (44) is connected to an insulating sleeve (43), the center of the insulating sleeve (43) is penetrated by the conductive shaft (42), so that the conductive shaft (42) can penetrate the center of the bearing (44) and be electrically connected to the output block (46) at the lower end of the rotating body (45), and the upper end of the conductive shaft (42) is also connected to a locking block (41); The locking block (41) and the output block (46) are both provided with threaded patterns on their exteriors, the rotating body (45) and the bearing (44) are perpendicular to each other, and a through cavity is opened in the center of the insulating sleeve (43) to allow the conductive shaft (42) to penetrate through.

6. A portable cardiac arrest clinical emergency equipment according to claim 5, characterized in that: The rotating body (45) is provided with a control ring (451), and the inner wall of the control ring (451) is provided with a connecting piece (452), and the edge of the rotating wheel (453) is fixed by the connecting piece (452); the center area of ​​the rotating wheel (453) is provided with an auxiliary ring (454) and is matched with the lower end of the bearing (44), and the center of the circle is penetrated by a penetration groove (455), so that the conductive shaft (42) penetrates and enters to be electrically connected with the output block (46); The control ring (451) is made of rubber and has a plurality of semicircular grooves on its edge. The edge of the rotating wheel (453) is fixed and covered by an internal plastic connector (452). The auxiliary ring (454) at the center of the rotating wheel (453) carries a small ball and contacts the ball inside the bearing (44). The penetrating groove (455) is circular in shape and matches the shape of the conductive shaft (42).

7. The portable cardiac arrest clinical emergency equipment according to claim 1, characterized in that: The electric shock device (3) is provided with a supporting connecting body (35), the lower end of the supporting connecting body (35) is fixedly connected to the edge of the protrusion (36), and the protrusion (36) overlaps the surface center of the electrode sheet (34), and the center of the protrusion (36) is also provided with a connecting groove (37) which is connected to the center of the electrode sheet (34). The electrode sheet (34) can be embedded in the storage cavity (33) and overlapped with the positioning frame (32). The positioning frame (32) is also provided with a restraining rod (31) at the upper and lower ends. The restraining rod (31) can penetrate into the supporting connecting body (35) to store and position the electrode sheet (34); The restraining rod (31) is provided at the upper and lower ends of the positioning frame (32) and is inserted and connected with the upper and lower end supporting connecting bodies (35) of the electrode sheet (34). The storage cavity (33) is square in shape and matches the shape of the electrode sheet (34). The connecting groove (37) with the protrusion (36) as the center carries an internal thread that matches the external thread of the output block (46).

8. The portable cardiac arrest clinical emergency equipment according to claim 7, characterized in that: The support connection body (35) is provided with a welding plug (351), and the welding plug (351) is vertically installed on the left and right sides of the upper layer of the parallel block (352); and a slot (353) is opened in the center of the parallel block (352) and extends to the inner area of ​​the lower support rod (354); the lower end of the support rod (354) is also equipped with a welding piece (355); The welding plug block (351) is in an upright position and is arranged in a symmetrical orientation on both sides of the upper end of the parallel block (352), so that the parallel block (352) can be parallel to the inner wall area of ​​the electrode sheet (34), and the support rod (354) and the parallel block (352) are perpendicular to each other and allow the restraining rod (31) to be inserted in a vertical orientation through the slot (353).

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