Carbon dioxide sealing device

Abstract

The utility model relates to the technical field of sealing equipment, in particular to a carbon dioxide sealing device. The carbon dioxide sealing device has the damping function and is stable in connection. A carbon dioxide sealing and storing device comprises sealing and storing box shock pads, connecting seats, positioning columns, opening mechanisms and the like, the shock pads are connected to the four corners of the bottom of a sealing and storing box respectively, the connecting seats are connected between the lower ends of the shock pads, the multiple positioning columns are arranged at the bottoms of the connecting seats at intervals, and the opening mechanisms are arranged on the connecting seats. Through cooperation of the positioning columns and the shock pads which are arranged in an independent and distributed mode, the effect of dispersing impact force generated by geological disasters on the connecting base and the equipment box on the connecting base is facilitated; and the supporting strips are further expanded towards the periphery through supporting force of outward extension of the outer telescopic shaft and the conical head and cooperation of the inner telescopic shaft, the ejector block and the push block, so that the mounting stability of the device can be further improved.

Description

Technical Field

[0001] The utility model relates to the technical field of sealing equipment, in particular to a carbon dioxide sealing device. Background Art

[0002] A CO2 storage facility is a technological facility that captures and permanently stores carbon dioxide emitted from the atmosphere or industrial processes to reduce its impact on global climate change.

[0003] After searching, the Chinese patent with authorization announcement number CN219034822U discloses a carbon dioxide storage device, which includes a storage box, a plug fixed at the bottom of the storage box, a plug block fixed at the bottom of the plug, a slotted hole on the plug, a stabilizing mechanism arranged in the slot, a groove on the plug, a cleaning mechanism arranged in the groove, and the stabilizing mechanism includes: a motor, the motor is fixed to the inner wall of the slot; a threaded rod, the threaded rod is fixed to the output end of the motor, the outer wall of the threaded rod is threadedly connected to the threaded groove, and the threaded groove is arranged on the latch. However, the device only has a rigid connection extending outward through the threaded rod, and there is still a problem of not being very firm in structure, and it does not have a flexible connection. When a geological disaster actually occurs, it is difficult to play an effective role in buffering and shock absorption to resist external impact force.

[0004] In view of this, a carbon dioxide storage device with a shock-absorbing function and a stable connection is proposed to solve the above technical problems. Utility Model Content

[0005] In order to overcome the defects of the existing packaging equipment, the technical problem to be solved is: to provide a carbon dioxide sealing device with a shock-absorbing function and a stable connection.

[0006] The technical solution is as follows: A carbon dioxide storage device includes a storage box, an equipment box, a conduit and a reaction device, and also includes a shock-absorbing pad, a connecting seat, a positioning column and a support mechanism. The four corners of the bottom of the storage box are respectively connected to the shock-absorbing pads, the lower ends of the shock-absorbing pads are connected to the connecting seat, a plurality of positioning columns are arranged at intervals at the bottom of the connecting seat, and the support mechanism is arranged on the connecting seat. The support mechanism includes a two-stage cylinder, an outer telescopic shaft, a conical head, an inner telescopic shaft, a top block, a connecting frame, a push block, a support bar and a tension spring. A two-stage cylinder is arranged in the middle of the connecting seat, and the outer telescopic shaft end of the two-stage cylinder is connected to a conical head. shaped head, the inner telescopic shaft is slidably mounted inside the outer telescopic shaft, top blocks are evenly spaced along the circumferential direction at the end of the inner telescopic shaft, connecting frames are evenly spaced along the circumferential direction inside the outer telescopic shaft, push blocks corresponding to the number of the top blocks are slidably penetrated on each connecting frame, a support bar is connected to the outside of each push block, and the support bars are slidably matched with the outer telescopic shaft, a tension spring is connected between each support bar and the corresponding connecting frame, when the inner telescopic shaft drives the top block thereon to move outward, the top block can squeeze the corresponding push block so that the support bar can be spread out to the surroundings.

[0007] Furthermore, V-shaped grooves are arranged at intervals on the outer sides of the support bars.

[0008] Furthermore, the corresponding surfaces of the push block and the top block are respectively inclined.

[0009] Furthermore, it also includes a limiting sleeve, a connecting sleeve and an I-shaped sleeve rod. Four limiting sleeves are arranged on the connecting seat, and the outer wall of the storage box is provided with connecting sleeves corresponding to the number of the limiting sleeves. The corresponding I-shaped sleeve rod is movably arranged between the connecting sleeves and the limiting sleeves.

[0010] Furthermore, it also includes a protective sleeve, and the ends of the two-stage cylinders are respectively embedded with the protective sleeve.

[0011] Furthermore, it also includes elastic parts, and a plurality of elastic parts are connected between the bottom of the sealing box and the connecting seat.

[0012] Compared with the prior art, the utility model has the following advantages: through the cooperation of independently distributed positioning columns and shock-absorbing pads, it is beneficial to disperse the impact force caused by geological disasters on the connecting seat and the equipment box thereon; and through the supporting force extending outward from the outer telescopic shaft and the conical head, and through the cooperation of the inner telescopic shaft, the top block and the push block, the support bars are further spread out to the four sides, thereby further improving the stability of the installation of the device, which is beneficial to minimize the damage to the device caused by geological disasters. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] Figure 1 It is a three-dimensional structural schematic diagram of the utility model.

[0014] Figure 2 It is a schematic diagram of the expanded state of the propping mechanism of the utility model.

[0015] Figure 3 It is a cross-sectional view of the utility model.

[0016] Figure 4 It is a three-dimensional structural schematic diagram of the propping mechanism of the utility model.

[0017] Figure 5 It is a partial three-dimensional structural schematic diagram of the propping mechanism of the utility model.

[0018] Figure 6 It is a schematic diagram of the connection structure of the connection frame, push block, support bar and tension spring of the utility model.

[0019] In the accompanying drawings: 1-storage box, 2-equipment box, 3-conduit, 4-reaction equipment, 5-shock-absorbing pad, 50-connecting seat, 6-positioning column, 7-two-stage cylinder, 70-external telescopic shaft, 71-conical head, 72-inner telescopic shaft, 73-top block, 74-connecting frame, 75-push block, 76-support bar, 77-tension spring, 78-protective sleeve, 8-elastic part, 9-limiting sleeve, 91-connecting sleeve, 92-I-type sleeve rod. DETAILED DESCRIPTION

[0020] The utility model is further described below in conjunction with the accompanying drawings and embodiments.

[0021] Embodiment 1: The utility model provides a carbon dioxide storage device, see Figure 1-Figure 6 As shown, it includes a storage box 1, an equipment box 2, a conduit 3, a reaction device 4, a shock-absorbing pad 5, a connecting seat 50, a positioning column 6 and a propping mechanism. The equipment box 2 is installed on the top of the storage box 1, and the conduit 3 is connected and communicated with the equipment box 2, and the lower end of the conduit 3 extends downward to the inside of the storage box 1. The reaction device 4 is arranged on the top of the storage box 1, and the reaction device 4 is located inside the equipment box 2. Shock-absorbing pads 5 are respectively connected to the four corners of the bottom of the storage box 1 to buffer and reduce shock for the storage box 1 and the components connected thereto to avoid damage caused by the impact of geological disasters. A connecting seat 50 is connected between the lower ends of the shock-absorbing pads 5, and six positioning columns 6 are arranged at intervals at the bottom of the connecting seat 50. The connecting seat 50 is provided with a propping mechanism that can be extended and opened to ensure that the connecting seat 50 and the storage box 1 are firmly installed.

[0022] For further information, see Figure 1-Figure 6As shown, the expansion mechanism includes a two-stage cylinder 7, an outer telescopic shaft 70, a conical head 71, an inner telescopic shaft 72, a top block 73, a connecting frame 74, a push block 75, a support bar 76 and a tension spring 77. A two-stage cylinder 7 is arranged in the middle of the connecting seat 50. The end of the outer telescopic shaft 70 of the two-stage cylinder 7 is connected to the conical head 71. The outer side of the conical head 71 is spaced apart with grooves, which is beneficial to improve the penetration into the soil and achieve the purpose of convenient installation. The inner telescopic shaft 72 is slidably mounted inside the outer telescopic shaft 70. The end of the inner telescopic shaft 72 is evenly spaced along the circumferential direction. The inner telescopic shaft 72 is evenly spaced along the circumferential direction. The outer telescopic shaft 70 is evenly spaced along the circumferential direction. Connecting frames 74 are evenly spaced along the circumferential direction. Each connecting frame 74 is slidably penetrated with a push block corresponding to the number of the top blocks 73. The corresponding surfaces of block 75, push block 75 and top block 73 are respectively inclined. When the inner telescopic shaft 72 drives the top block 73 to move, the top block 73 can be squeezed with the corresponding push block 75, so that the support bar 76 can be stretched to the four sides, which is beneficial to improving the stability of the device during installation. The outer side of each push block 75 is connected to a support bar 76, and the support bars 76 are slidably matched with the outer telescopic shaft 70. V-shaped grooves are arranged at intervals on the outer side of the support bars 76, which is beneficial to increase the grip on the soil and thus enhance stability. A tension spring 77 is connected between each support bar 76 and the corresponding connecting frame 74. When the top block 73 is separated from the corresponding push block 75, the tension spring 77 can pull the support bar 76 thereon to reset inward.

[0023] When in use, by inserting the positioning column 6 with a pointed lower end into the soil at the bottom of the water, the connecting seat 50 can be stably positioned, and the two-stage cylinder 7 is started to make the outer telescopic shaft 70 and the inner telescopic shaft 72 thereon gradually extend to both sides respectively, and the outer telescopic shaft 70 should be extended before the inner telescopic shaft 72. When the outer telescopic shaft 70 is extended outward to the limit, the conical head 71 thereon can be firmly stuck into the soil, and then the inner telescopic shaft 72 extends outward to drive the top block 73 thereon to cooperate with the corresponding push block 75, so that the push block 75 can drive the support bar 76 thereon to open to the surroundings, thereby further improving the firmness of the installation of the connecting seat 50 and the storage box 1; and the shock-absorbing pad 5 can achieve the purpose of buffering and shock-absorbing the storage box 1, which can effectively avoid damage to the device when a geological disaster occurs.

[0024] Embodiment 2: Based on Embodiment 1, refer to Figure 1 and Figure 2 As shown, it also includes a limiting sleeve 9, a connecting sleeve 91 and an I-shaped sleeve rod 92. Four limiting sleeves 9 are arranged on the connecting seat 50, and the outer wall of the storage box 1 is provided with connecting sleeves 91 corresponding to the number of the limiting sleeves 9. The corresponding connecting sleeves 91 and the limiting sleeves 9 are movably set with an I-shaped sleeve rod 92. Through the pulling effect of the I-shaped sleeve rod 92, it is beneficial to further improve the seismic resistance of the device.

[0025] For further information, see Figure 3-Figure 5 As shown, a protective sleeve 78 is also included. The ends of the two-stage cylinder 7 are respectively embedded with protective sleeves 78 for scraping off the mud stuck on the external telescopic shaft 70 and the support bar 76 when they are retracted and reset.

[0026] In addition, see Figure 1 and Figure 2 As shown, it also includes an elastic member 8. A plurality of elastic members 8 are connected between the bottom of the storage box 1 and the connecting seat 50. The elastic member 8 is a spring and is used to cooperate with the shock-absorbing pad 5 to further buffer and reduce shock of the device.

[0027] Through the limiting effect of the limiting sleeve 9 and the connecting sleeve 91 on the industrial sleeve rod 92, the industrial sleeve rod 92 can only automatically move within the limiting range of the limiting sleeve 9 and the connecting sleeve 91, so that it can play a pulling role between the storage box 1 and the connecting seat 50, which can effectively reduce shock absorption and also play a stabilizing role; and through the buffering effect of the elastic member 8, it can cooperate with the shock-absorbing pad 5 to play a further shock-absorbing and protective role on the equipment box 2, which is beneficial to minimize the damage caused by geological disasters to the device.

[0028] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention shall be included in the protection scope of the present invention.

Claims

1. A carbon dioxide storage device, comprising a storage box (1), an equipment box (2), a conduit (3) and a reaction device (4), characterized in that: The invention also comprises a shock-absorbing pad (5), a connecting seat (50), a positioning column (6) and an expansion mechanism. The four corners of the bottom of the sealing box (1) are respectively connected with the shock-absorbing pads (5). The lower ends of the shock-absorbing pads (5) are connected with the connecting seat (50). A plurality of positioning columns (6) are arranged at intervals at the bottom of the connecting seat (50). The expansion mechanism is arranged on the connecting seat (50). The expansion mechanism comprises a two-stage cylinder (7), an outer telescopic shaft (70), a conical head (71), an inner telescopic shaft (72), a top block (73), a connecting frame (74), a push block (75), a support bar (76) and a tension spring (77). A two-stage cylinder (7) is arranged in the middle of the connecting seat (50). The end of the outer telescopic shaft (70) of the two-stage cylinder (7) is connected with the conical head (71). The inner sliding portion of the outer telescopic shaft (70) The sleeve is provided with an inner telescopic shaft (72), and the end of the inner telescopic shaft (72) is evenly spaced along the circumferential direction with a top block (73), and the inner part of the outer telescopic shaft (70) is evenly spaced along the circumferential direction with a connecting frame (74), and each connecting frame (74) is slidably penetrated with a number of push blocks (75) corresponding to the number of the top blocks (73), and each push block (75) is connected to the outer side with a support bar (76), and the support bar (76) is slidably matched with the outer telescopic shaft (70), and a tension spring (77) is connected between each support bar (76) and the corresponding connecting frame (74), and when the inner telescopic shaft (72) drives the top block (73) thereon to move outward, the top block (73) can squeeze the corresponding push block (75) so that the support bar (76) can be stretched out to the surroundings.

2. A carbon dioxide storage device according to claim 1, characterized in that: V-shaped grooves are arranged at intervals on the outer sides of the support bars (76).

3. A carbon dioxide storage device according to claim 1, characterized in that: The push block (75) and the top block (73) have corresponding surfaces which are arranged to be inclined.

4. The carbon dioxide storage device according to claim 1, characterized in that: It also comprises a limiting sleeve (9), a connecting sleeve (91) and an I-shaped sleeve rod (92); four limiting sleeves (9) are arranged on the connecting seat (50); the outer wall of the sealing box (1) is provided with connecting sleeves (91) corresponding to the number of the limiting sleeves (9); and an I-shaped sleeve rod (92) is movably mounted between the corresponding connecting sleeves (91) and the limiting sleeves (9).

5. The carbon dioxide storage device according to claim 1, characterized in that: It also includes a protective sleeve (78), and the ends of the two-stage cylinder (7) are respectively embedded with the protective sleeve (78).

6. The carbon dioxide storage device according to claim 1, characterized in that: It also includes an elastic member (8), and a plurality of elastic members (8) are connected between the bottom of the sealing box (1) and the connecting seat (50).

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