Ocean exploration platform rock core sample rapid packaging and anti-corrosion storage equipment

Abstract

The invention relates to the technical field of rock core sample rapid packaging and anti-corrosion storage, in particular to ocean exploration platform rock core sample rapid packaging and anti-corrosion storage equipment which comprises a base and a box fixedly connected to the base. The device comprises a box body, and further comprises a containing assembly arranged on the box body, an air drying assembly arranged in the middle of the box body, a rotating assembly arranged on the box body, a control assembly arranged on the rotating assembly and an inner pipe placed on the rotating assembly. Then the control assembly is operated to enable the rock core to accurately and slowly fall into the containing assembly, then the cutting piece is used for carrying out equidistant cutting, under the action of the air drying assembly, rotary air drying of the rock core in the containing assembly can be achieved, and the air drying efficiency is improved.

Description

Technical Field

[0001] The invention relates to the technical field of rapid packaging and anti-corrosion storage of core samples, and in particular to a rapid packaging and anti-corrosion storage device for core samples of an ocean exploration platform. Background Art

[0002] An offshore exploration platform refers to an offshore structure used for offshore oil and gas exploration, resource development and related scientific research. Its main function is to provide a stable operating platform to support tasks such as drilling, oil production, observation and research. During the exploration process, drilling equipment will be used to obtain seabed cores, and then the cores from various locations will be inspected to analyze whether the conditions for mining are met.

[0003] The existing drilling core sampling equipment in the marine exploration platform drives the outer tube of the drill tool through the drilling rig power head, first drills the outer tube of the drill tool into the rock layer, and then opens the drilling rig power head to send the inner tube assembly into the outer tube of the drill tool. When the inner tube assembly reaches the bottom of the outer tube, it will automatically engage with the outer tube. Then, as the outer tube is continuously drilled, the inner tube assembly will store the core in the inner tube assembly. When the inner tube assembly is full of cores, the inner tube assembly is released from the outer tube and salvaged through a rope salvage mechanism, and then the retaining spring seat of the inner tube assembly is removed to pour out the core in the inner tube assembly.

[0004] In the prior art, after the inner tube assembly is salvaged and the retaining ring seat is removed, the inner tube assembly needs to be tilted manually and then the outer wall of the inner tube assembly needs to be continuously knocked to make the core fall out. This process is time-consuming and laborious. Then the staff uses experience to divide the core into small sections by hammering or cutting and put them into a core storage box. In this process, it requires the collaborative operation of multiple people to complete, which is extremely inefficient. Segmentation based on manual experience will also lead to uneven segmentation. In addition, the surface of the core obtained on the marine exploration platform contains a large amount of moisture. After the segmentation is completed, it needs to be naturally air-dried before centralized storage. Otherwise, the core with high moisture content is easily corroded if directly stored, and loses its original state, thereby affecting the accuracy of later detection. However, the natural air-drying method takes a long time to achieve the drying effect. For this reason, a rapid packaging and anti-corrosion storage device for core samples of an ocean exploration platform is proposed. Summary of the invention

[0005] The purpose of the present invention is to provide a rapid packaging and anti-corrosion storage device for core samples of an ocean exploration platform, which solves the problems of cumbersome and inefficient segmented storage of cores and inability to quickly air-dry and store cores. By clamping the inner tube on a rotating component and using it in conjunction with a limiter, the control component is operated to allow the core to accurately and slowly fall into a storage tube, and then the cutting machine is used to cut the cores into equal sections. Under the action of a fan, the cores can be rotated and air-dried, thereby improving the air-drying efficiency.

[0006] To achieve the above object, the present invention provides the following technical solutions: A rapid encapsulation and anti-corrosion storage device for core samples of an ocean exploration platform, comprising a base and a box body fixedly connected to the base, characterized in that: it further includes a placing component arranged on the box body, a drying component arranged at the center of the box body, a rotating component arranged at the upper end of the box body, a control component arranged on the rotating component, an inner tube placed on the rotating component, and a cutting piece arranged on the rotating component, and the cutting piece is used for cutting the core in the inner tube; One set or more than one set of placing components are provided, and the placing components are distributed around the center of the box body; The rotating component can rotate around the box body with the center of the box body as the center of the circle; The control component is located below the inner tube and is used for fixing and releasing the core in the inner tube; The drying component is communicated with the placing component.

[0007] Preferably, the placing component includes an annular cavity opened on the box body, a first bearing installed at the upper end of the annular cavity, a second bearing installed at the lower end of the annular cavity, a bottom plate fixedly connected to the middle of the second bearing, a clamping block fixedly connected to the inner ends of the first bearing and the second bearing, a fan blade fixedly connected between the first bearing and the second bearing, and a storage part placed in the annular cavity, and both ends of the storage part are respectively connected to the first bearing and the second bearing.

[0008] Preferably, the storage part includes a storage cylinder placed in the annular cavity, both ends of the storage cylinder are respectively connected to the first bearing and the second bearing, ventilation holes opened on the storage cylinder, docking grooves opened on the storage cylinder, the docking grooves are adapted to the clamping blocks, and an upper cover threadedly connected to the top of the storage cylinder.

[0009] Preferably, the drying component includes a blast cylinder fixedly connected to the center of the box body, a fan installed at the bottom of the blast cylinder, a wind guide channel fixedly connected around the blast cylinder, an air inlet opened on the inner side of the annular cavity, and an air outlet opened on the outer side of the annular cavity, and the wind guide channel is communicated with the air inlet.

[0010] Preferably, the air inlet is located on the right side of the center line of the annular cavity, the air outlet is located on the center line of the annular cavity, and the width of the air outlet is greater than the width of the air inlet.

[0011] Preferably, the rotating component includes a circular plate fixedly connected to the top of the box body, a base fixedly connected to the circular plate, a rotating rod rotatably connected to the base, a hinge installed on the rotating rod, a support column installed on the hinge, a support plate fixedly connected to the support column, a semi-ring fixedly connected to the support plate, a pushing ring slidably connected to the support plate, a telescopic cylinder installed on the support column and connected to the pushing ring, and a limiting part installed below the semi-ring.

[0012] Preferably, the limiting member includes an extension frame fixedly connected to the bottom of the semi-ring, a connecting block fixedly connected to the extension frame, an insertion rod slidably connected to the connecting block, a clamping seat fixedly connected to the top of the box body, the position of the clamping seat corresponds to the annular cavity, and a clamping groove is provided on the clamping seat, and the insertion rod is adapted to the clamping groove; the two ends of the clamping seat are arranged with inclined surfaces.

[0013] Preferably, the cutting member comprises a ring sleeve rotatably connected to the base, and a cutter fixedly connected to the ring sleeve; when the core falls into the storage tube, the cutter can be started and driven to rotate around the rotating rod to cut the core.

[0014] Preferably, the control assembly includes a rotating shaft rotatably connected to the bottom of the extension frame, a handle fixedly connected to the rotating shaft, a round block fixedly connected to the rotating shaft, a telescopic frame slidably connected to the bottom of the extension frame, a pushing block fixedly connected to both sides of the telescopic frame, a connecting rod fixedly connected to the telescopic frame, a moving column slidably connected to the connecting rod, a pushing plate fixedly connected to the moving column, and a spring installed on the outside of the moving column; the round block is eccentrically connected to the rotating shaft, and the round block contacts the pushing block.

[0015] Compared with the prior art, the present invention has the following beneficial effects: 1. The present invention clamps the inner tube on the rotating component and then operates the control component to make the core drop accurately into the containing component. The falling speed of the core can be controlled by the control component to prevent the core from falling too fast and causing the core to be broken, thereby ensuring the integrity of the core. When the core completely falls into the containing component, the cutting member can be quickly moved to cut the core in the inner tube into equal sections, thereby increasing the segmentation speed of the core. Since the distance between each group of containing components and the cutting member is equal, the uniformity of the length of the core segmentation is ensured.

[0016] 2. In the present invention, after all the storage tubes are loaded with rock cores, the fan can be started. When the fan is working, the airflow entering the annular cavity from the air inlet cooperates with the fan blades to push the first bearing and the second bearing to rotate, thereby driving the storage tube to rotate together. During the rotation, the airflow will accelerate the drying of the rock cores in the storage tube, and the rock cores that rotate with the storage tube can effectively throw off the water under the action of centrifugal force during rotation, thereby accelerating the drying efficiency. After the rock cores are dried, the upper cover can be connected to the storage tube for packaging, and then the storage tube can be lifted out by holding the hand strap on the storage tube for direct stacking and storage, thereby preventing the damp rock cores from being corrupted and deteriorated during the storage process, affecting the accuracy of the later inspection data.

[0017] 3. In the process of placing the core in the storage tube, the present invention can first mark the depth of the core and other information on the storage tube. Then, in the process of rotating and air-drying the core, due to the gap between the core and the storage tube, friction and collision will occur between the core and the storage tube when the storage tube drives the core to rotate, so the relatively fragile core will break. After the storage tube is taken out after air-drying, the hardness of the core material at different depths can be pre-judged by observing the degree of core breakage and the information of the core on the storage box. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a schematic diagram of the overall appearance of the three-dimensional structure of the present invention; Figure 2 This is a state diagram of the support column and the rotating rod of the present invention after being opened along the hinge; Figure 3 It is a schematic diagram of the structure of the containing assembly of the present invention; Figure 4 It is an enlarged view of the fan blade of the present invention; Figure 5 It is a schematic diagram of the three-dimensional structure of the storage element of the present invention; Figure 6 This is a bird's-eye view of the box of the present invention; Figure 7 It is a schematic diagram of the structure of the air-drying component of the present invention; Figure 8 It is a schematic diagram of the structure of the rotating assembly of the present invention; Figure 9 for Figure 8 Enlarged view of point A in the middle; Figure 10 It is a schematic diagram of the control component structure of the present invention; Figure 11 This is a diagram showing a state where the control assembly of the present invention is installed on an extension frame.

[0019] In the figure: 1. Base; 2. Box body; 3. Placing component; 31. Annular cavity; 32. First bearing; 33. Second bearing; 34. Base plate; 35. Block; 36. Fan blade; 37. Storage member; 371. Storage cylinder; 372. Ventilation hole; 373. Docking groove; 374. Upper cover; 4. Air-drying component; 41. Blower cylinder; 42. Fan; 43. Air guiding channel; 44. Air inlet; 45. Air outlet; 5. Rotating component; 51. Circular plate; 52. Base; 521. Cutting member; 5211. Ring sleeve; 5212. Cutting machine; 53. Rotating rod; 54. Hinge; 55. Support column; 56. Support plate; 57. Half ring; 58. Pushing ring; 59. Telescopic cylinder; 510. Limiting member; 5101. Extension frame; 5102. Connecting block; 5103. Insert rod; 5104. Clamping seat; 5105. Clamping groove; 6. Control component; 61. Rotating shaft; 62. Handle; 63. Round block; 64. Telescopic frame; 65. Pushing block; 66. Connecting rod; 67. Moving column; 68. Pushing plate; 69. Spring; 7. Inner tube. Detailed implementation manners

[0020] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0021] Please refer to Figures 1 to 11 , the present invention provides a rapid encapsulation and anti-corrosion storage device for core samples of an ocean exploration platform, and the technical solutions are as follows: As an implementation manner of the present invention, referring to Figure 1 and Figure 2 , a rapid encapsulation and anti-corrosion storage device for core samples of an ocean exploration platform includes a base 1, a box body 2 fixedly connected to the base 1, and further includes a placing component 3 arranged on the box body 2, an air-drying component 4 arranged at the center of the box body 2, a rotating component 5 arranged at the upper end of the box body 2, a control component 6 arranged on the rotating component 5, and an inner tube 7 placed on the rotating component 5, and a cutting member 521 arranged on the rotating component 5, and the cutting member 521 is used for cutting the core in the inner tube 7; Multiple groups of placing components 3 are provided, and the placing components 3 are distributed around the center of the box body 2; The rotating component 5 can rotate around the box body 2 with the center of the box body 2 as the center of the circle; The control component 6 is located below the inner tube 7 and is used for fixing and releasing the core in the inner tube 7; The air-drying component 4 is communicated with the placing component 3.

[0022] When the inner tube 7 is fixed to the rotating assembly 5, the falling and braking of the core can be controlled by the control assembly 6. When the rotating assembly 5 drives the inner tube 7 to rotate above the storage assembly 3, the control assembly 6 can be operated to release the core, allowing the core to fall into the storage assembly 3. After the core falls to the bottom of the storage assembly 3, the control assembly 6 can be operated to fix the position of the core. Then, the cutting piece 521 can be operated to cut this part of the core. After the cutting is completed, the rotating assembly 5 can be rotated continuously to move the uncut core above another set of storage assemblies 3 for the next cutting operation. Under the action of the air-drying assembly 4, the core will rotate continuously and gradually be air-dried with the rapid flow of air.

[0023] As an embodiment of the present invention, referring to Figures 2 to 5 , the storage assembly 3 includes an annular cavity 31 opened on the box body 2, a first bearing 32 installed at the upper end of the annular cavity 31, a second bearing 33 installed at the lower end of the annular cavity 31, a bottom plate 34 fixedly connected to the middle of the second bearing 33, a clamping block 35 fixedly connected to the inner ends of the first bearing 32 and the second bearing 33, a fan blade 36 fixedly connected between the first bearing 32 and the second bearing 33, and a storage member 37 placed in the annular cavity 31. Both ends of the storage member 37 are respectively connected to the first bearing 32 and the second bearing 33; multiple groups of fan blades 36 are arranged in a circumferential array between the first bearing 32 and the second bearing 33. The storage member 37 can enter from the first bearing 32 and then be placed on the bottom plate 34 on the second bearing 33. The clamping block 35 can be clamped with the storage member 37, enabling the storage member 37 to rotate following the rotation of the first bearing 32 and the second bearing 33.

[0024] As an embodiment of the present invention, referring to Figures 3 to 6 , the storage member 37 includes a storage cylinder 371 placed in the annular cavity 31. Both ends of the storage cylinder 371 are respectively connected to the first bearing 32 and the second bearing 33, ventilation holes 372 opened on the storage cylinder 371, a docking groove 373 opened on the storage cylinder 371, which is adapted to the clamping block 35, and an upper cover 374 threadedly connected to the top of the storage cylinder 371; when placing the storage cylinder 371 in the annular cavity 31, the docking groove 373 can be docked with the clamping block 35. When the first bearing 32 and the second bearing 33 rotate, the clamping block 35 can drive the storage cylinder 371 to rotate. And a pulling strap is provided on the upper cover 374. When it is necessary to take out the storage cylinder 371 that has stored the core, the upper cover 374 can be installed on the top of the storage cylinder 371, and the storage cylinder 371 can be lifted by holding the pulling strap. When placing the core in the storage cylinder 371, the upper cover 374 needs to be removed from the storage cylinder 371.

[0025] As an embodiment of the present invention, referring to Figure 7 and Figure 6, the air-drying component 4 includes a blast pipe 41 fixedly connected to the center of the box body 2, a blower 42 installed at the bottom of the blast pipe 41, a wind guide channel 43 fixedly connected around the blast pipe 41, an air inlet 44 opened on the inner side of the annular cavity 31, and an air outlet 45 opened on the outer side of the annular cavity 31. The wind guide channel 43 is communicated with the air inlet 44. When the blower 42 works, air will sequentially pass through the wind guide channel 43 and the air inlet 44, enter the annular cavity 31, and finally be discharged from the air outlet 45.

[0026] As an implementation manner of the present invention, referring to Figure 6 and Figure 5 , the air inlet 44 is located on the right side of the center line of the annular cavity 31, the air outlet 45 is located on the center line of the annular cavity 31, and the width of the air outlet 45 is greater than the width of the air inlet 44. When the blower 42 works, the air flow entering the annular cavity 31 from the air inlet 44 will cooperate with the fan blade 36 to push the first bearing 32 and the second bearing 33 to rotate, and then drive the storage cylinder 371 to rotate together. During the rotation process, the air flow will accelerate the air-drying of the core in the storage cylinder 371, and the core following the rotation of the storage cylinder 371 can effectively throw off the water liquid under the action of centrifugal force during rotation, accelerating the air-drying efficiency.

[0027] As an implementation manner of the present invention, referring to Figure 8 and Figure 9 , the rotating component 5 includes a circular plate 51 fixedly connected to the top of the box body 2, a base 52 fixedly connected to the circular plate 51, a rotating rod 53 rotatably connected to the base 52, a hinge 54 installed on the rotating rod 53, a support column 55 installed on the hinge 54, a support plate 56 fixedly connected to the support column 55, a semi-ring 57 fixedly connected to the support plate 56, a pushing ring 58 slidably connected to the support plate 56, a telescopic cylinder 59 installed on the support column 55 and connected to the pushing ring 58, and a limiting member 510 installed under the semi-ring 57. Since the support column 55 and the rotating rod 53 are connected by the hinge 54, the support column 55 can be bent at a right angle with the rotating rod 53. When the inner tube 7 passes through the semi-ring 57, the telescopic cylinder 59 can be started to push the pushing ring 58, and then the inner tube 7 can be clamped between the semi-ring 57 and the pushing ring 58. When the hinge 54 closes and the central axes of the support column 55 and the rotating rod 53 coincide, the inner tube 7 can rotate 360 degrees above the box body 2 with the rotating rod 53 as the axis.

[0028] As an implementation manner of the present invention, referring to Figure 9, the limiting member 510 includes an extension frame 5101 fixedly connected to the bottom of the semi-ring 57, a connecting block 5102 fixedly connected to the extension frame 5101, a plug rod 5103 slidably connected to the connecting block 5102, a clamping seat 5104 fixedly connected to the top of the box body 2, the position of the clamping seat 5104 corresponding to the annular cavity 31, and a clamping groove 5105 opened on the clamping seat 5104, the plug rod 5103 being adapted to the clamping groove 5105; both ends of the clamping seat 5104 are provided with inclined surfaces; during the process that the inner tube 7 is clamped between the semi-ring 57 and the pushing ring 58 and the inner tube 7 is pushed to continue to rotate around the rotating rod 53, when the plug rod 5103 passes through the clamping seat 5104, the bottom end of the plug rod 5103 will be affected by the inclined surface of the clamping seat 5104, and the plug rod 5103 will be in an ascending state, and then it will fall and be clamped with the clamping groove 5105. At this time, the inner tube 7 will not be able to rotate, and the axis of the inner tube 7 and the axis of the storage cylinder 371 are on the same straight line. When the plug rod 5103 is pushed upward, the limit can be released, and the inner tube 7 can continue to rotate around the rotating rod 53.

[0029] As an implementation manner of the present invention, referring to Figure 8 , the cutting member 521 includes a ring sleeve 5211 rotatably connected to the base 52, and a cutting machine 5212 fixedly connected to the ring sleeve 5211; when the core falls into the storage cylinder 371, the cutting machine 5212 can be started and the cutting machine 5212 can be pushed to rotate around the rotating rod 53 to cut the core.

[0030] As an implementation manner of the present invention, referring to Figure 10 and Figure 11 , the control assembly 6 includes a rotating shaft 61 rotatably connected to the bottom of the extension frame 5101, a handle 62 fixedly connected to the rotating shaft 61, a round block 63 fixedly connected to the rotating shaft 61, a telescopic frame 64 slidably connected to the bottom of the extension frame 5101, a pushing block 65 fixedly connected to both sides of the telescopic frame 64, a connecting rod 66 fixedly connected to the telescopic frame 64, a moving column 67 slidably connected to the connecting rod 66, a pushing plate 68 fixedly connected to the moving column 67, and a spring 69 installed on the outside of the moving column 67; the round block 63 is eccentrically connected to the rotating shaft 61, and the round block 63 contacts the pushing block 65; when the handle 62 is pulled downward, the rotating shaft 61 will drive the round block 63 to rotate around the rotating shaft 61, and the round block 63 will gradually push the pushing block 65 to move to the right, thereby pushing the telescopic frame 64 and the pushing plate 68 to move to the right to abut against the core. The greater the downward rotation amplitude of the handle 62, the greater the frictional force of the pushing plate 68 on the core.

[0031] Working principle: Referring to Figure 2 , Figure 10 and Figure 11, after removing the inner tube 7 and the snap ring seat in the ocean exploration platform, the support column 55 can be first pushed to make it at a 90-degree angle with the rotating rod 53, and then the inner tube 7 is passed through the half ring 57. The telescopic cylinder 59 is started to clamp the inner tube 7 between the half ring 57 and the extrusion ring 58. At this time, since the whole inner tube 7 is parallel to the ground, the core will not fall due to the action of gravity. The cylinder can be first loosened to push the inner tube 7 to make the exposed part of the core close to the extrusion plate 68, and then the telescopic cylinder 59 is driven to clamp the inner tube 7. Then, the handle 62 can be pulled. At this time, the rotating shaft 61 will drive the round block 63 to rotate around the rotating shaft 61 as the center, and the round block 63 gradually pushes the pushing block 65 to move towards the core, so that the extrusion plate 68 gradually presses against the core.

[0032] Refer to Figure 1 , Figure 10 and Figure 11 , and then the support column 55 is lifted to make the axis of the support column 55 and the rotating rod 53 on the same straight line. At this time, the inner tube 7 will be perpendicular to the box body 2. Due to the pushing and frictional force of the extrusion plate 68 on the core, the core will not fall. Then, the inner tube 7 can be operated to rotate around the rotating rod 53 to the upper part of the storage cylinder 371. After the insertion rod 5103 is inserted into the clamping groove 5105, the axis of the inner tube 7 and the axis of the storage cylinder 371 will be on the same straight line. At this time, the handle 62 can be slowly lifted, so that the telescopic frame 64 gradually retracts under the thrust of the spring 69. As a result, the frictional force of the extrusion plate 68 on the core gradually decreases, and the core will slowly fall into the storage cylinder 371 under the action of gravity, and the falling speed of the core can be controlled by the amplitude of rotating the handle 62; Refer to Figures 5 to 8 , when the core completely falls into the storage cylinder 371, the handle 62 can be pulled again to make the handle 62 make the extrusion plate 68 press against the core again. Then, the cutting machine 5212 is started, and the cutting machine 5212 is pushed to rotate around the rotating rod 53 to cut the core. After cutting is completed, the insertion rod 5103 can be lifted to release the limit of the extension frame 5101 by the insertion rod 5103. Then, the inner tube 7 is rotated to the upper part of the next storage cylinder 371 for the next section of core segmentation operation. When all the storage cylinders 371 are filled with cores, the fan 42 can be started. When the fan 42 works, the air flow entering the annular cavity 31 from the air inlet 44 will cooperate with the fan blades 36 to push the bearing one 32 and the bearing two 33 to rotate, so as to drive the storage cylinder 371 to rotate together. During the rotation process, the air flow will accelerate the drying of the core in the storage cylinder 371. And under the action of centrifugal force during the rotation of the core following the storage cylinder 371, the water liquid can be effectively thrown off, accelerating the drying efficiency. When the core is dried, the upper cover 374 can be connected to the storage cylinder 371, and then the storage cylinder 371 can be lifted by holding the hand strap on the storage cylinder 371 and directly stacked for storage; In the process of placing the core in the storage tube 371, various information such as the depth of the core can be marked on the storage tube 371. Then, in the process of rotating and air-drying the core, due to the gap between the core and the storage tube 371, when the storage tube 371 drives the core to rotate, friction and collision will occur between the core and the storage tube 371, so the relatively fragile core will break. After the storage tube 371 is taken out after air-drying, the hardness of the core material at different depths can be pre-judged by observing the degree of core breakage and the information of the core on the storage box.

[0033] Even though we have provided specific embodiments of the present invention, it should be clear to those skilled in the art that various changes, modifications, substitutions and variations can be made to these embodiments without violating the fundamental concept and purpose of the present invention. The scope of the present invention is not fixed, but is ultimately determined by the claims contained in the patent document and the equivalent technical solutions. In short, the scope of the present invention is defined by the attached claims and their equivalents.

Claims

1. A rapid encapsulation and anti-corrosion storage device for core samples of an ocean exploration platform, comprising a base (1) and a box body (2) fixedly connected to the base (1), characterized in that: It further includes a storage component (3) arranged on the box body (2), a drying component (4) arranged at the center of the box body (2), a rotating component (5) arranged at the upper end of the box body (2), a control component (6) arranged on the rotating component (5), an inner tube (7) placed on the rotating component (5), and a cutting piece (521) arranged on the rotating component (5), and the cutting piece (521) is used for cutting the core in the inner tube (7); One set or more than one set of the storage components (3) are arranged, and the storage components (3) are distributed around the center of the box body (2); The rotating component (5) can rotate around the box body (2) with the center of the box body (2) as the center of the circle; The control component (6) is located below the inner tube (7) and is used for fixing and releasing the core in the inner tube (7); The drying component (4) is communicated with the storage component (3).

2. A rapid encapsulation and anti-corrosion storage device for core samples of an ocean exploration platform according to claim 1, characterized in that: The storage component (3) includes an annular cavity (31) opened on the box body (2), a first bearing (32) installed at the upper end of the annular cavity (31), a second bearing (33) installed at the lower end of the annular cavity (31), a bottom plate (34) fixedly connected to the middle of the second bearing (33), a clamping block (35) fixedly connected to the inner ends of the first bearing (32) and the second bearing (33), a fan blade (36) fixedly connected between the first bearing (32) and the second bearing (33), and a storage piece (37) placed in the annular cavity (31), and both ends of the storage piece (37) are respectively connected to the first bearing (32) and the second bearing (33).

3. The rapid encapsulation and anti-corrosion storage device for core samples of an ocean exploration platform according to claim 2, characterized in that: The storage piece (37) includes a storage cylinder (371) placed in the annular cavity (31), both ends of the storage cylinder (371) are respectively connected to the first bearing (32) and the second bearing (33), ventilation holes (372) opened on the storage cylinder (371), a docking groove (373) opened on the storage cylinder (371), the docking groove (373) is adapted to the clamping block (35), and an upper cover (374) threadedly connected to the top of the storage cylinder (371).

4. The rapid encapsulation and anti-corrosion storage device for core samples of an ocean exploration platform according to claim 3, characterized in that: The drying component (4) includes a blast cylinder (41) fixedly connected to the center of the box body (2), a blower (42) installed at the bottom of the blast cylinder (41), a wind guide channel (43) fixedly connected around the blast cylinder (41), an air inlet (44) opened on the inner side of the annular cavity (31), and an air outlet (45) opened on the outer side of the annular cavity (31), and the wind guide channel (43) is communicated with the air inlet (44).

5. A rapid encapsulation and anti-corrosion storage device for core samples of an ocean exploration platform according to claim 4, characterized in that: The air inlet (44) is located on the right side of the center line of the annular cavity (31), the air outlet (45) is located on the center line of the annular cavity (31), and the width of the air outlet (45) is greater than the width of the air inlet (44).

6. The rapid encapsulation and anti-corrosion storage device for core samples of an ocean exploration platform according to claim 2, characterized in that: The rotating assembly (5) includes a circular plate (51) fixedly connected to the top of the box body (2), a base (52) fixedly connected to the circular plate (51), a rotating rod (53) rotatably connected to the base (52), a hinge (54) mounted on the rotating rod (53), a support column (55) mounted on the hinge (54), a support plate (56) fixedly connected to the support column (55), a half-ring (57) fixedly connected to the support plate (56), a pushing ring (58) slidably connected to the support plate (56), a telescopic cylinder (59) mounted on the support column (55) and connected to the pushing ring (58), and a limiting member (510) mounted below the half-ring (57).

7. The rapid encapsulation and anti-corrosion storage device for core samples of an ocean exploration platform according to claim 6, characterized in that: The limiting member (510) includes an extension frame (5101) fixedly connected to the bottom of the half-ring (57), a connecting block (5102) fixedly connected to the extension frame (5101), a plug rod (5103) slidably connected to the connecting block (5102), a clamping seat (5104) fixedly connected to the top of the box body (2), the position of the clamping seat (5104) corresponding to the annular cavity (31), and a clamping groove (5105) opened on the clamping seat (5104), the plug rod (5103) being adapted to the clamping groove (5105); both ends of the clamping seat (5104) are provided with inclined surfaces.

8. An apparatus for rapid encapsulation and anti-corrosion storage of core samples on an ocean exploration platform according to claim 6, characterized in that: The cutting member (521) includes a collar (5211) rotatably connected to the base (52), and a cutting machine (5212) fixedly connected to the collar (5211).

9. An apparatus for rapid encapsulation and anti-corrosion storage of core samples of an ocean exploration platform according to claim 7, characterized in that: The control assembly (6) includes a rotating shaft (61) rotatably connected to the bottom of the extension frame (5101), a handle (62) fixedly connected to the rotating shaft (61), a circular block (63) fixedly connected to the rotating shaft (61), a telescopic frame (64) slidably connected to the bottom of the extension frame (5101), pushing blocks (65) fixedly connected to both sides of the telescopic frame (64), a connecting rod (66) fixedly connected to the telescopic frame (64), a moving column (67) slidably connected to the connecting rod (66), a pushing plate (68) fixedly connected to the moving column (67), and a spring (69) mounted on the outside of the moving column (67); the circular block (63) is eccentrically connected to the rotating shaft (61), and the circular block (63) contacts the pushing block (65).

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