Underground deep ground sample sampler

Abstract

The utility model relates to the technical field of samplers, in particular to an underground deep ground sample sampler which comprises a storage device, a sampling structure and a gravity block, the inner side of a connecting plate in the storage device is connected with a first rotating shaft through a bolt, the two sides of the first rotating shaft are connected with limiting pieces through bolts, and the outer side of the first rotating shaft is wound with a connecting rope. Second rotating shafts are connected to the two sides of a connecting plate in the storage device through bolts, first telescopic grooves are connected to one sides of the second rotating shafts through bolts, the first telescopic grooves are hollow, and the first rotating shafts are connected to the inner sides of the connecting plates so that the first rotating shafts can drive ropes to be stored. A first rotating shaft can be rotated through a rotating disc so that the first rotating shaft can drive a rope to be stored, a first telescopic groove can be driven to rotate through a second rotating shaft, the length can be adjusted through a first telescopic rod movably connected into the first telescopic groove, and a storage device can be supported through a second clamping block.

Description

Technical Field

[0001] The utility model relates to the technical field of samplers, in particular to a downhole deep ground sample sampler. Background Technique

[0002] A sampler is a sampling device used for heat exchange of steam and water tests and samplings in boiler rooms or power plants, that is, for heat exchange of media such as liquids and gases with relatively high temperatures. Most of the water in boilers and thermal systems has relatively high temperatures, and high water temperatures are not convenient for sampling and determination of tests. Therefore, cooling should be carried out during sampling, that is, the sample at the sampling point is introduced into a sampling cooler for cooling. Generally, it is required to ensure that when the flow rate is 500 - 700 mL / min, the sample can be cooled to below 30 - 40 degrees, meeting the standard of DL / T 457-91 in the electric power industry of the People's Republic of China.

[0003] However, when the existing sampler is used for downhole sampling, due to the uneven downhole ground, it is rather troublesome for the drill bit to reach the ground for sampling during sampling. Moreover, due to the unclear downhole conditions, it is very easy to encounter stones and other situations during sampling. However, when some samplers encounter stones during sampling, it is very easy to cause damage to the sampler, resulting in certain losses.

[0004] Therefore, in order to solve the above problems, a downhole deep ground sample sampler is proposed. Content of the Utility Model

[0005] The purpose of the utility model is to provide a downhole deep ground sample sampler to solve the problems in the prior art mentioned in the above background technique. When the existing sampler is used for downhole sampling, due to the uneven downhole ground, it is rather troublesome for the drill bit to reach the ground for sampling during sampling. Moreover, due to the unclear downhole conditions, it is very easy to encounter stones and other situations during sampling. However, when some samplers encounter stones during sampling, it is very easy to cause damage to the sampler, resulting in certain losses.

[0006] To achieve the above purpose, the utility model provides the following technical solution: A downhole deep ground sample sampler, including: a storage device, a sampling structure, and a gravity block. The inner side of the connecting plate in the storage device is bolted to a first rotating shaft. Limiting pieces are bolted to both sides of the first rotating shaft. A rope is wound and connected to the outside of the first rotating shaft.

[0007] Both sides of the connecting plate in the storage device are bolted to a second rotating shaft. One side of the second rotating shaft is bolted to a first telescopic groove. The first telescopic groove is hollow inside. A first telescopic rod is movably connected to the hollow part inside the first telescopic groove. The lower end of the rope in the storage device is tied to connect a first connecting rod in the sampling structure. A first spring is movably connected to the outside of the lower end of the first connecting rod. A circular heavy object in the gravity block is inserted and connected to the outside of the first connecting rod in the sampling structure.

[0008] Preferably, one side of the connecting plate is bolted to the turntable.

[0009] Preferably, both sides of the connecting plate are bolted to the second rotating shaft. The rear end of the first telescopic groove is movably connected inside the second rotating shaft. The first telescopic groove is hollow inside. A first telescopic rod is movably connected inside the first telescopic groove. The rear end of the first telescopic rod is bolted to a first clamping block. The front end of the first telescopic rod is hollow to form a first threaded groove. A first threaded rod is rotatably connected inside the first threaded groove. A second clamping block is movably connected to the outside of the first threaded rod. Both sides of the connecting plate are threaded and hollow to form a second threaded groove. A limiting block is rotatably connected inside the second threaded groove.

[0010] Preferably, a first spring is movably connected to the outside of the lower end of the first connecting rod in the sampling structure. The first connecting rod and the lower end of the first spring are bolted to the upper end of the connecting box. Four sides of the upper end of the connecting box are bolted to second connecting rods. A second spring is movably connected to the outside of the lower end of the second connecting rod. The upper end of the second connecting rod is inserted and connected to the four sides of the insertion rod groove. The first connecting rod is movably connected inside the insertion rod groove. The upper end of the insertion rod groove is rotatably connected to a first bolt.

[0011] Preferably, a drill bit is rotatably connected to the lower end of the connecting box. A second telescopic groove is bolted to the lower end of the connecting box. A second telescopic rod is movably connected inside the second telescopic groove. A third spring is movably connected to the outside of the second telescopic rod. The lower end of the third spring is welded to an arc-shaped storage groove. Support rods are bolted to both sides of the connecting box. A connecting block is welded to the lower end of the support rod. A sliding groove is welded to one side of the connecting block. The sliding groove is hollow inside. A slider protrudes inside the sliding groove.

[0012] Preferably, a stop block is bolted to the lower end of the sliding groove. A fourth spring is bolted to the lower end of the stop block. The lower end of the fourth spring is bolted inside the support leg. The support leg is hollow inside. The fourth spring is movably connected inside the support leg.

[0013] Preferably, the inside of the circular heavy object in the gravity block is hollow to form a socket. One side of the circular heavy object is hollow to form a slot. The two sides of the slot are hollow to form a third threaded groove. A third clamping block is inserted and connected inside the slot. A first insertion block is welded to one side of the third clamping block. A second insertion block is welded to the other side of the third clamping block. A second bolt is rotatably connected inside the first insertion block and the second insertion block.

[0014] Compared with the prior art, the beneficial effects of the present utility model are:

[0015] 1. The utility model is provided with a connecting plate, a first rotating shaft, a limiting piece, a rope, a turntable, a second rotating shaft, a first telescopic groove, a first telescopic rod, a first clamping block, a first threaded groove, a first threaded rod, a second clamping block, a second threaded groove and a limiting block. By connecting the first rotating shaft to the inner side of the connecting plate, the first rotating shaft can drive the rope to be retracted. By means of the turntable, the first rotating shaft can be rotated to drive the rope to be retracted. By means of the second rotating shaft, the first telescopic groove can be driven to rotate. The length can be adjusted by the first telescopic rod movably connected inside the first telescopic groove. The second clamping block can support the storage device. The first clamping block can limit the first telescopic rod. By rotatably connecting the limiting block inside the second threaded groove, the telescopic groove can be blocked so that the telescopic groove will not rotate.

[0016] 2. The utility model is provided with a first connecting rod, a first spring, a connecting box, a second connecting rod, a second spring, a slot, a first bolt, a drill bit, a second telescopic groove, a second telescopic rod, a third spring, an arc-shaped storage groove, a support rod, a connecting block, a chute, a slider, a stop block, a fourth spring, a support leg, a circular heavy object, a socket, a slot, a third threaded groove, a third clamping block, a first plug, a second plug and a second bolt. By movably connecting the lower end of the first connecting rod to the first spring, the slot can be buffered. By movably connecting the lower end of the second connecting rod to the second spring, the plug groove can have a certain buffer. The gravity block can be blocked by the first bolt. The sample can be collected through the arc-shaped storage grooves on both sides of the drill bit. The arc-shaped storage groove can be moved up and down by the second telescopic rod movably connected inside the second telescopic groove. The stop block welded inside the chute can be slidably connected inside the support leg. By connecting the upper end of the stop block to the chute, the stop block can move up and down with the fourth spring connected to the lower end, making it more convenient for the drill bit to take samples. The heavy object can press on the upper end of the slot, causing the chute to press the stop block at the lower end to move downward so that the drill bit can take samples. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a front sectional view of the structure of the utility model;

[0018] Figure 2 It is a front sectional view of the sampling structure of the utility model;

[0019] Figure 3 It is a side sectional view of the structure of the storage device of the utility model;

[0020] Figure 4 It is a top view of the structure of the gravity block of the utility model;

[0021] Figure 5 It is a top view of the structure of the gravity block of the utility model;

[0022] Figure 6Front view schematic diagram of the structure of the gravity block of the present utility model;

[0023] Figure 7 Cross-sectional schematic diagram of the structure of the chute of the present utility model.

[0024] In the figure: 1. Storage device; 101. Connecting plate; 102. First rotating shaft; 103. Limiting piece; 104. Rope; 105. Turntable; 106. Second rotating shaft; 107. First telescopic groove; 108. First telescopic rod; 109. First clamping block; 110. First threaded groove; 111. First threaded rod; 112. Second clamping block; 113. Second threaded groove; 114. Limiting block; 2. Sampling structure; 201. First connecting rod; 202. First spring; 203. Connecting box; 204. Second connecting rod; 205. Second spring; 206. Slot; 207. First bolt; 208. Drill bit; 209. Second telescopic groove; 210. Second telescopic rod; 211. Third spring; 212. Arc-shaped storage groove; 213. Support rod; 214. Connecting block; 215. Chute; 216. Slide block; 217. Stopper; 218. Fourth spring; 219. Support leg; 3. Gravity block; 301. Circular heavy object; 302. Socket; 303. Slot; 304. Third threaded groove; 305. Third clamping block; 306. First plug; 307. Second plug; 308. Second bolt. Specific implementation manner

[0025] Next, the technical solutions in the embodiments of the present utility model will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present utility model. Obviously, the described embodiments are only a part of the embodiments of the present utility model, rather than all the embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present utility model.

[0026] Please refer to Figure 1-7 , an embodiment provided by the present utility model:

[0027] An underground deep ground sample sampler includes: a storage device 1, a sampling structure 2, and a gravity block 3. The inner side of the connecting plate 101 in the storage device 1 is bolted to the first rotating shaft 102, and the limiting pieces 103 are bolted on both sides of the first rotating shaft 102. The rope 104 is wound and connected to the outside of the first rotating shaft 102;

[0028] On both sides of the connecting plate 101 in the storage device 1, the second rotating shaft 106 is connected by bolts. On one side of the second rotating shaft 106, the first telescopic groove 107 is connected by bolts. The inside of the first telescopic groove 107 is hollow. Inside the hollow part of the first telescopic groove 107, the first telescopic rod 108 is movably connected. The lower end of the rope 104 in the storage device 1 is tied to the first connecting rod 201 in the sampling structure 2. On the outer side of the lower end of the first connecting rod 201, the first spring 202 is movably connected. The first connecting rod 201 in the sampling structure 2 is inserted and connected to the circular heavy object 301 in the gravity block 3 on the outside.

[0029] Furthermore, on one side of the connecting plate 101, the turntable 105 is connected by bolts. The first rotating shaft 102 is connected to the inside of the connecting plate 101 to enable the first rotating shaft 102 to drive the rope 104 for storage. The turntable 105 is used to rotate the first rotating shaft 102 so that the first rotating shaft 102 can drive the rope 104 for storage.

[0030] Furthermore, on both sides of the connecting plate 101, the second rotating shaft 106 is connected by bolts. The rear end of the first telescopic groove 107 is movably connected inside the second rotating shaft 106. The inside of the first telescopic groove 107 is hollow. The first telescopic rod 108 is movably connected inside the first telescopic groove 107. The rear end of the first telescopic rod 108 is connected by bolts to the first clamping block 109. The front end of the first telescopic rod 108 is hollow to form the first threaded groove 110. Inside the first threaded groove 110, the first threaded rod 111 is rotatably connected. The second clamping block 112 is movably connected to the outside of the first threaded rod 111. The two sides of the connecting plate 101 are threaded and hollow to form the second threaded groove 113. Inside the second threaded groove 113, the limiting block 114 is rotatably connected. The second rotating shaft 106 is used to drive the first telescopic groove 107 to rotate. The first telescopic rod 108 movably connected inside the first telescopic groove 107 is used to adjust the length. The second clamping block 112 is used to support the storage device 1. The first clamping block 109 is used to limit the first telescopic rod 108. The limiting block 114 rotatably connected inside the second threaded groove 113 is used to block the telescopic groove 110 so that the telescopic groove 110 does not rotate.

[0031] Further, the outer side of the lower end of the first connecting rod 201 in the sampling structure 2 is movably connected to the first spring 202. The lower end of the first connecting rod 201 and the first spring 202 are connected to the upper end of the connection box 203 with bolts. The four sides of the upper end of the connection box 203 are connected to the second connecting rod 204 with bolts. The outer side of the lower end of the second connecting rod 204 is movably connected to the second spring 205. The upper end of the second connecting rod 204 is inserted and connected to the four sides of the insertion rod groove 206. The first connecting rod 201 is movably connected inside the insertion rod groove 206. The upper end of the insertion rod groove 206 is rotatably connected to the first bolt 207. The movable connection between the lower end of the first connecting rod 201 and the first spring 202 is used to buffer the slot 206. The movable connection between the lower end of the second connecting rod 204 and the second spring 205 is used to enable the insertion rod groove 206 to have a certain buffer. The first bolt 207 is used to block the gravity block 3.

[0032] Further, the lower end of the connection box 203 is rotatably connected to the drill bit 208. The lower end of the connection box 203 is connected to the second telescopic groove 209 with bolts. The second telescopic rod 210 is movably connected inside the second telescopic groove 209. The outer side of the second telescopic rod 210 is movably connected to the third spring 211. The lower end of the third spring 211 is welded to the arc-shaped storage groove 212. The two sides of the connection box 203 are connected to the support rod 213 with bolts. The lower end of the support rod 213 is welded to the connection block 214. One side of the connection block 214 is welded to the sliding groove 215. The inside of the sliding groove 215 is hollow. A slider 216 protrudes inside the sliding groove 215. The arc-shaped storage grooves 212 on both sides of the drill bit 208 are used to collect samples. The movable connection of the second telescopic rod 210 inside the second telescopic groove 209 is used to enable the arc-shaped storage groove 212 to move up and down.

[0033] Further, the lower end of the sliding groove 215 is connected to the stop block 217 with bolts. The lower end of the stop block 217 is connected to the fourth spring 218 with bolts. The lower end of the fourth spring 218 is connected to the inside of the support leg 219 with bolts. The inside of the support leg 219 is hollow. The fourth spring 218 is movably connected inside the support leg 219. The stop block 217 welded inside the sliding groove 215 is used to slidably connect to the inside of the support leg 219. The upper end of the stop block 217 connected to the sliding groove 215 is used to enable the stop block 217 to move up and down with the fourth spring 218 connected to its lower end, making it more convenient for the drill bit 208 to take samples.

[0034] Furthermore, the circular heavy object 301 in the gravity block 3 is hollow inside to form a socket 302, one side of the circular heavy object 301 is hollow inside to form a slot 303, both sides of the slot 303 are hollow inside to form a third threaded groove 304, the third clamping block 305 is inserted inside to connect, the first plug block 306 is welded on one side of the third clamping block 305, and the second plug block 307 is welded on the other side of the third clamping block 305, the first plug block 306 and the second plug block 307 are internally rotatably connected to the second bolt 308, and the heavy object 301 is used to press on the upper end of the slot 206 so that the slide groove 215 can press the stop block 217 at the lower end to move downward so that the drill bit 208 can take samples.

[0035] Working principle: When in use, first rotate the second rotating shaft 106 to make the first telescopic slot 107 rotate outward, then rotate the limit block 114 to connect the first telescopic slot 107 in the second threaded slot 113 to limit the first telescopic slot 107, pull the first telescopic rod 108 to make the first telescopic rod 108 extend from the first telescopic slot 107 and limit it with the first clamping block 109, rotate the first threaded rod 111 to adjust the second clamping block 112, insert the round heavy object 301 into the outside of the first connecting rod 201 and use the first plug block 306, the second plug block 307 and the third threaded slot 304 in the third clamping block 305 to rotate and connect it with the second bolt 308 Next, when the appropriate gravity block 3 is placed, the sampling structure 2 is placed on the upper end of the wellhead where sampling is required and slowly lowered from the upper end of the wellhead. When it reaches the bottom, the weight of the gravity block 3 will cause the slide 215 to press downward. When the slide 215 presses downward, the connection box 203 will sink. When the connection box 203 sinks, it will drive the drill bit 208 to sink. When the drill bit 208 is against the place where sampling is required, the drill bit 208 can be started. The sample drilled by the drill bit 208 during sampling will fall into the arc-shaped receiving groove 212. When the sample is taken, the turntable 105 can be rotated so that the sampling structure 2 is driven by the rope 104 to move upward.

[0036] The above description is only a preferred embodiment of the utility model and does not limit the utility model in any form. Any ordinary technician in the industry can smoothly implement the utility model as shown in the drawings of the specification and described above. However, any equivalent changes, modifications and evolutions made by technicians familiar with the profession without departing from the scope of the technical solution of the utility model using the technical content disclosed above are all equivalent embodiments of the utility model. At the same time, any equivalent changes, modifications and evolutions made to the above embodiments based on the essential technology of the utility model are still within the protection scope of the technical solution of the utility model.

Claims

1. An underground deep ground sample sampler, comprising: A storage device (1), a sampling structure (2) and a gravity block (3). Inside the connecting plate (101) of the storage device (1), a first rotating shaft (102) is connected by bolts. On both sides of the first rotating shaft (102), limit pieces (103) are connected by bolts. A rope (104) is wound and connected to the outside of the first rotating shaft (102). It is characterized in that: on both sides of the connecting plate (101) in the storage device (1), a second rotating shaft (106) is connected by bolts. On one side of the second rotating shaft (106), a first telescopic groove (107) is connected by bolts. The inside of the first telescopic groove (107) is hollow. Inside the hollow part of the first telescopic groove (107), a first telescopic rod (108) is movably connected. The lower end of the rope (104) in the storage device (1) is tied to connect the first connecting rod (201) in the sampling structure (2). On the outside of the lower end of the first connecting rod (201), a first spring (202) is movably connected. The first connecting rod (201) in the sampling structure (2) is inserted and connected to the circular heavy object (301) in the gravity block (3) on the outside.

2. The downhole deep ground sample sampler according to claim 1, characterized in that: On one side of the connecting plate (101), a turntable (105) is connected by bolts.

3. The downhole deep ground sample sampler according to claim 2, wherein: On both sides of the connecting plate (101), a second rotating shaft (106) is connected by bolts. The inside of the second rotating shaft (106) is movably connected to the rear end of the first telescopic groove (107). The inside of the first telescopic groove (107) is hollow. Inside the first telescopic groove (107), a first telescopic rod (108) is movably connected. The rear end of the first telescopic rod (108) is connected by bolts to a first clamping block (109). The front end of the first telescopic rod (108) is hollow to form a first threaded groove (110). Inside the first threaded groove (110), a first threaded rod (111) is rotatably connected. The outside of the first threaded rod (111) is movably connected to a second clamping block (112). On both sides of the connecting plate (101), the threads are hollow to form a second threaded groove (113). Inside the second threaded groove (113), a limit block (114) is rotatably connected.

4. The downhole deep ground sample sampler according to claim 1, characterized in that: On the outside of the lower end of the first connecting rod (201) in the sampling structure (2), a first spring (202) is movably connected. The first connecting rod (201) and the lower end of the first spring (202) are connected to the upper end of a connecting box (203) by bolts. On the four sides of the upper end of the connecting box (203), second connecting rods (204) are connected by bolts. On the outside of the lower end of the second connecting rods (204), second springs (205) are movably connected. The upper ends of the second connecting rods (204) are inserted and connected to the four sides of a plug slot (206). Inside the plug slot (206), the first connecting rod (201) is movably connected. The upper end of the plug slot (206) is rotatably connected to a first bolt (207).

5. The downhole deep ground sample sampler according to claim 4, characterized in that: The lower end of the connection box (203) is rotatably connected to the drill bit (208). The lower end of the connection box (203) is bolted to the second telescopic groove (209). The second telescopic rod (210) is movably connected inside the second telescopic groove (209). The third spring (211) is movably connected to the outside of the second telescopic rod (210). The lower end of the third spring (211) is welded to the arc-shaped storage groove (212). The support rods (213) are bolted to both sides of the connection box (203). The lower end of the support rod (213) is welded to the connection block (214). One side of the connection block (214) is welded to the sliding groove (215). The inside of the sliding groove (215) is hollow. A slider (216) protrudes inside the sliding groove (215).

6. The downhole deep ground sample sampler according to claim 5, characterized in that: The lower end of the sliding groove (215) is bolted to the stop block (217). The lower end of the stop block (217) is bolted to the fourth spring (218). The lower end of the fourth spring (218) is bolted inside the support leg (219). The inside of the support leg (219) is hollow. The fourth spring (218) is movably connected inside the support leg (219).

7. The downhole deep ground sample sampler according to claim 1, wherein: The circular heavy object (301) in the gravity block (3) has a hollow socket (302) inside. One side of the circular heavy object (301) is hollow to form a slot (303). Both sides of the slot (303) are hollow to form a third thread groove (304). The third clamping block (305) is inserted into the slot (303). One side of the third clamping block (305) is welded to the first insertion block (306). The other side of the third clamping block (305) is welded to the second insertion block (307). The first insertion block (306) and the second insertion block (307) are rotatably connected to the second bolt (308) inside.

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