A storage device for environmental monitoring with sample extraction function

Abstract

The present invention relates to the technical field of sample collection and storage, and in particular, to a storage device for environmental monitoring with a sample extraction function. The storage device comprises a storage unit, wherein a partition is arranged inside the storage unit, and the partition divides the inside of the storage unit into a plurality of chambers. When the partition moves downward, the storage unit is driven to move downward, and a protective member is provided on the outside of the storage unit. When collecting samples, the present invention inserts one end of the partition into the sample, and then cuts the sample through the storage unit, so that the device is inserted into the sample to collect the sample. When the collection is completed, the partition is rotated to drive the protective member to rotate, and the rotating protective member drives the blocking member to penetrate the sample, and the storage unit is lifted to shrink inward, and then the partition moves upward to guide the blocking member, so that the blocking member and the partition block the bottom of the storage unit, so that the device completes the sampling and storage of the device.

Description

Technical Field

[0001] The present invention relates to the technical field of sample collection and storage, and in particular to a storage device for environmental monitoring with a sample extraction function. Background Art

[0002] In the process of environmental monitoring, samples will be collected from water sources or soil in the monitoring area, and then the sampled samples will be tested. Currently, when collecting water sources or soil in the monitoring environment, different equipment will be used for collection, and then the collected samples will be transferred to a storage device. By transferring the device for storing samples, testers can test the samples, and determine the environmental conditions through the tested samples, thereby performing environmental testing. However, in different environments, such as the collected soil, there will be stratification. When it is taken out of the sampling device and then placed in a storage device, it will cause confusion between the stratification of the soil layers, and the chaotic soil layers will affect the detection of testers. Summary of the invention

[0003] The object of the present invention is to provide a storage device for environmental monitoring with a sample extraction function to solve the problems raised in the above-mentioned background technology.

[0004] To achieve the above-mentioned purpose, a storage device for environmental monitoring with a sample extraction function is provided, including a storage member, a partition is arranged inside the storage member, the partition divides the interior of the storage member into a plurality of chambers, and when the partition moves downward, it drives the storage member downward; a protective member is sleeved on the outside of the storage member, and a blocking member is arranged near the lower end of the protective member, the blocking member is sleeved on the storage member, the protective member protects the blocking member, and when the partition rotates, it drives the protective member to rotate, and the rotating protective member pushes the blocking member toward the lower side of the storage member, so that one end of the blocking member extends to the bottom of the storage member, and the blocking member extending to the bottom of the storage member flips toward the central axis of the storage member, and during the flipping of the blocking member, the partition is pulled up, so that the partition limits the flipping position of the blocking member, so that the blocking member and the partition cooperate to seal the bottom of the storage member.

[0005] As a further improvement of the present technical solution, the storage element includes a storage tube, and the partition element includes a plurality of partition plates in an annular array, wherein the partition plates are arranged inside the storage tube, and the side walls of the partition plates are in contact with the side walls of the storage tube, and the plurality of partition plates divide the interior of the storage tube into a plurality of chambers.

[0006] As a further improvement of the present technical solution, a plurality of side cabinet bars corresponding to the positions of the partition plates are fixed on the inner wall of the storage tube, and clamping bars are fixed on the tops of the plurality of side cabinet bars, the partition plates are slidably arranged in the clamping bars, and the side edges of the partition plates are slidably arranged in the side cabinet bars.

[0007] As a further improvement of the technical solution, a middle tube is fixed between several of the clamping strips, a middle sliding column is fixed on the upper side of several partition plate connection positions, the middle sliding column is slidably arranged inside the middle tube, a sliding groove is provided on the middle tube for the partition plates to move up and down, the middle tube blocks the upward position of the partition plates, and one end of the middle sliding column passes through the upper end of the middle tube and is fixed with a connecting column.

[0008] As a further improvement of the present technical solution, the protective member includes a rotating ring, which is sleeved on a position near the upper end of the storage tube, a plurality of outer rings are fixed on the outer wall of the storage tube near the top, an inner ring groove is provided on the inner wall of the rotating ring, the outer ring is slidably arranged in the inner ring groove, and a protective ring is rotatably connected to the rotating ring near the bottom, a sliding chamber is arranged between the protective ring and the storage tube, and the sealing member is arranged in the sliding chamber.

[0009] As a further improvement of the present technical solution, the sealing member includes a lower slide tube, which is slidably mounted on the storage tube, and the outer wall of the lower slide tube is in sliding contact with the inner wall of the protective collar, and a plurality of vertical slide grooves are provided inside the lower slide tube, and a plurality of sliding limit blocks are fixed to the outer wall of the storage tube near the bottom, and the sliding limit blocks are slidably arranged in the vertical slide grooves.

[0010] As a further improvement of the present technical solution, the upper side of the descending tube and the bottom of the rotating collar are both provided with inclined arc surfaces. When the descending tube is inside the protective collar, the bottom of the rotating collar and the top of the descending tube are in close contact. When the rotating collar rotates, the inclined arc surface of the rotating collar squeezes the inclined arc surface of the descending tube, so that one end of the descending tube extends downward from the protective collar.

[0011] As a further improvement of the present technical solution, a plurality of sealing pieces are hingedly connected to the bottom annular array of the downward descending tube, an elastic rubber ring for covering the gap between the downward descending tube and the sealing piece is arranged at the connecting position of the downward descending tube and the sealing piece, and a torsion spring is arranged at the hinged position of the sealing piece and the downward descending tube, and the torsion spring drives one end of the sealing piece to rotate toward a position close to the central axis of the downward descending tube.

[0012] As a further improvement of the present technical solution, the bottom of the partition plate is an inclined surface inclined toward the axis of the storage tube, and several partition plates are fixed with spikes at the bottom, and inclined guide strips are fixed on the inclined surface of the bottom of the partition plate. When the sealing piece is tilted, the partition plate moves upward so that the inclined guide strips guide the end of the sealing piece, so that the several sealing pieces and the spikes seal the bottom of the storage tube.

[0013] As a further improvement of the present technical solution, the upper end of the connecting column is threadedly connected with a connecting head, the connecting head is rotatably connected with a pull rod, the pull rod is rotatably connected with a rotating block, the external sliding sleeve of the rotating block is provided with a limiting tube, the rotating block slides up and down inside the limiting tube, and the limiting tube sleeves the connecting column and the top ring inside, the limiting tube is rotatably set on the top ring, a rotating frame is fixed at the bottom of the limiting tube, a plurality of rotating bars are fixed at the bottom of the rotating frame near the edge, a plurality of rotation limiting grooves corresponding to the rotating bars are opened on the outer side wall of the rotating ring near the top, and one end of the rotating bar is slidably inserted in the rotation limiting groove.

[0014] Compared with the prior art, the present invention has the following beneficial effects:

[0015] In the storage device for environmental monitoring with a sample extraction function, when collecting samples, one end of the partition is inserted into the sample, and then the sample is cut through the storage member, so that the device is inserted into the sample to collect the sample. At the same time, when the collection is completed, the partition is rotated to drive the protective member to rotate, and the rotating protective member drives the blocking member to penetrate the sample, and at the same time the storage member is lifted to shrink the blocking member inward, and then the partition moves upward to guide the blocking member, so that the blocking member and the partition seal the bottom of the storage member, so that the device completes the sampling and storage of the device, and when collecting soil, the trouble of transferring soil is avoided. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a schematic diagram of the structure of the overall device of the present invention when piercing a sample;

[0017] Figure 2 A schematic diagram of the structure of the overall device of the present invention when preparing a sealed sample;

[0018] Figure 3 It is a schematic diagram of the structure of the overall device of the present invention when sealing a sample;

[0019] Figure 4 It is a schematic diagram of the cross-sectional structure of the overall device of the present invention when piercing a sample;

[0020] Figure 5 A schematic cross-sectional view of the overall device of the present invention when preparing a sealed sample;

[0021] Figure 6 It is a schematic diagram of the cross-sectional structure of the overall device of the present invention when plugging a sample;

[0022] Figure 7 It is a schematic diagram of the storage element structure of the present invention;

[0023] Figure 8 It is a schematic diagram of the cross-sectional structure of the storage element of the present invention;

[0024] Fig. 9 It is a schematic diagram of the structure of the separator of the present invention;

[0025] Fig.10 It is a schematic diagram of the exploded structure of the separator part of the present invention;

[0026] Fig.11 It is a schematic diagram of the structure of the protective element of the present invention;

[0027] Fig.12 It is a schematic diagram of the cross-sectional structure of the protective element of the present invention;

[0028] Fig.13 It is a schematic diagram of the structure of the blocking member of the present invention;

[0029] Fig.14 It is a schematic diagram of the cross-sectional structure of the blocking member of the present invention.

[0030] The meaning of each number in the figure is:

[0031] 1. Storage piece; 11. Storage tube; 12. Side cabinet bar; 13. Clamping bar; 14. Middle tube; 15. Top ring; 16. Rotating block; 17. Sliding limit block; 18. Outer ring;

[0032] 2. separator; 21. separator plate; 22. thorn head; 23. inclined guide bar; 24. retaining ring; 25. middle sliding column; 26. connecting column; 27. limiting tube; 28. rotating frame; 281. rotating bar; 29. ​​rotating block; 291. connecting head; 292. tie rod;

[0033] 3. Protective element; 31. Rotating collar; 32. Protective collar; 33. Inner ring groove; 34. Rotating limiting groove; 35. Arc limiting groove;

[0034] 4. Sealing piece; 41. Downward slide tube; 42. Sealing piece; 43. Vertical slide groove; 44. Elastic rubber ring. DETAILED DESCRIPTION

[0035] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0036] In the description of the present invention, it should be understood that the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", "clockwise", "counterclockwise" and the like indicate orientations or positional relationships based on the orientations or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the referred device or element must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be understood as a limitation on the present invention.

[0037] Example 1

[0038] To avoid stratification problems in sampled samples, refer to Figure 1-Figure 6 As shown, the purpose of this embodiment is to provide a storage device for environmental monitoring with a sample extraction function, including a storage element 1, the interior of the storage element 1 is used to store the sampled sample, and the interior of the storage element 1 is provided with a partition 2, the partition 2 divides the interior of the storage element 1 into a plurality of chambers, and when the partition 2 moves downward, the storage element 1 is driven to move downward, so that the storage element 1 and the partition 2 are both inserted into the sample to be collected, and a protective element 3 is provided on the outside of the storage element 1, and a blocking element 4 is provided near the lower end of the protective element 3 to seal The blocking member 4 is sleeved on the storage member 1, and the protective member 3 protects the blocking member 4. When the partition 2 rotates, it drives the protective member 3 to rotate. The rotating protective member 3 pushes the blocking member 4 to the lower side of the storage member 1, so that one end of the blocking member 4 extends to the bottom of the storage member 1, and the blocking member 4 extending to the bottom of the storage member 1 is turned toward the central axis of the storage member 1. During the turning of the blocking member 4, the partition 2 is pulled up to limit the turning position of the blocking member 4, so that the blocking member 4 and the partition 2 cooperate to block the bottom of the storage member 1.

[0039] When collecting samples, one end of the partition 2 is inserted into the sample, and then the sample is cut through the storage member 1, so that the device is inserted into the sample to collect the sample. At the same time, when the collection is completed, the partition 2 is rotated to drive the protective member 3 to rotate, and the rotating protective member 3 drives the blocking member 4 to penetrate the sample. At the same time, the storage member 1 is lifted to make the blocking member 4 shrink inward, and then the partition 2 moves upward to guide the blocking member 4, so that the blocking member 4 and the partition 2 seal the bottom of the storage member 1, so that the device completes the sampling and storage of the device, and when collecting soil, the trouble of transferring soil is eliminated.

[0040] In order to make the above structure achieve the above described effect, please refer to Figure 1-Figure 14 As shown, the storage element 1 includes a storage tube 11, and the partition element 2 includes a plurality of partition plates 21 in an annular array. The partition plates 21 are arranged inside the storage tube 11, and the side walls of the partition plates 21 are in contact with the side walls of the storage tube 11, so that the plurality of partition plates 21 divide the interior of the storage tube 11 into a plurality of chambers. At the same time, a plurality of side cabinet bars 12 corresponding to the positions of the partition plates 21 are fixed on the inner wall of the storage tube 11, and clamping bars 13 are fixed on the tops of the plurality of side cabinet bars 12. The partition plates 21 are slidably arranged in the clamping bars 13, and the side edges of the partition plates 21 are slidably arranged in the side cabinet bars 12. The position of the partition plates 21 is limited by the side cabinet bars 12 and the clamping bars 13, so that the partition plates 21 can only move up and down inside the storage tube 11, thereby improving the sliding movement of the partition plates 21 inside the storage tube 11. In order to ensure the stability of movement, a middle tube 14 is fixed between several clamping bars 13, and a middle sliding column 25 is fixed on the upper side of the connection position of several partition plates 21. The middle sliding column 25 is slidably arranged inside the middle tube 14, and a sliding groove for the partition plates 21 to move up and down is opened on the middle tube 14. When the partition plates 21 move upward, the middle tube 14 will block the upward position of the partition plates 21. The space for the partition plates 21 to move in the storage tube 11 is controlled by blocking the upward position of the partition plates 21 by the middle tube 14. One end of the middle sliding column 25 passes through the upper end of the middle tube 14 and is fixed with a connecting column 26. The upper end of the connecting column 26 is threadedly connected to a connecting head 291, and a pull rod 292 is rotatably connected to the connecting head 291. The user pulls or presses the pull rod 292 to make the pull rod 292 press or pull up the connecting column 26.

[0041] When soil needs to be collected, the storage tube 11 is placed on the soil, and then the pull rod 292 is pressed. The pull rod 292 under pressure drives the partition plate 21 to press into the soil. A retaining ring 24 is fixed near the top of several partition plates 21. During the downward movement of the partition plates 21, the retaining ring 24 presses the top of the storage tube 11, so that the storage tube 11 is penetrated into the soil together with the partition plates 21. In order to facilitate the penetration of the partition plates 21 into the soil, the bottom of the partition plates 21 is an inclined surface inclined to the axis of the storage tube 11, and several partition plates 21 are provided. A spike 22 is fixed at the bottom of the plate 21. When the partition plate 21 is forced to move downward, the spike 22 first penetrates into the soil, and then the partition plate 21 divides the soil. Then the storage tube 11 cuts the soil, allowing the soil to enter the chamber between the storage tube 11 and the partition plate 21. When the device needs to continue to move downward, the device needs to be repeatedly inserted into the soil and then the soil is taken out. If the soil needs to be fully collected, after the soil is collected in the storage tube 11, the device that has completed the soil collection is extracted, and then a new device is replaced to continue collecting.

[0042] After the storage tube 11 collects the soil, the soil will fall down, thus causing the loss of soil layers.

[0043] Please refer to Figure 7-Figure 14The protective member 3 includes a rotating collar 31, which is sleeved on a position near the upper end of the storage tube 11. A plurality of outer rings 18 are fixed on an outer wall of the storage tube 11 near the top. An inner ring groove 33 is provided on the inner wall of the rotating collar 31. The outer ring 18 is slidably arranged in the inner ring groove 33. A plurality of rotating blocks 16 are fixed centrally and symmetrically on the outer ring 18. At the same time, a limiting arc groove 35 is centrally and symmetrically provided on the side wall of the inner ring groove 33. The rotating block 16 is slidably arranged inside the limiting arc groove 35. The limiting arc groove 35 limits the rotating block 16 to rotate 90 degrees in the limiting arc groove 35. At the same time, a protective collar 32 is rotatably connected to the rotating collar 31 near the bottom. A sliding chamber is provided between the protective collar 32 and the storage tube 11. The blocking member 4 is provided in the sliding chamber. The blocking member 4 includes a lowering tube 41, which is slidably sleeved on the storage tube 11, and the outer wall of the lowering tube 41 and the protective The inner wall of the protective sleeve ring 32 is in sliding contact, and a plurality of vertical sliding grooves 43 are provided inside the lower slide tube 41. A plurality of sliding limit blocks 17 are fixed at a position near the bottom of the outer wall of the storage tube 11. The sliding limit blocks 17 are slidably arranged in the vertical sliding grooves 43. The vertical sliding grooves 43 limit the movement trajectory of the sliding limit blocks 17, so that the lower slide tube 41 can move up and down between the storage tube 11 and the protective sleeve ring 32. At the same time, inclined arc surfaces are provided on the upper side of the lower slide tube 41 and the bottom of the rotating sleeve ring 31. The inclined surface is a trajectory with one end high and the other end low, and its shape is elliptical. When the lower slide tube 41 is inside the protective sleeve ring 32, the bottom of the rotating sleeve ring 31 and the top of the lower slide tube 41 are in close contact. When the rotating sleeve ring 31 rotates, the inclined arc surface of the rotating sleeve ring 31 squeezes the inclined arc surface of the lower slide tube 41, so that one end of the lower slide tube 41 extends downward from the protective sleeve ring 32.

[0044] A plurality of sealing pieces 42 are hingedly connected in an annular array at the bottom of the lower slide tube 41. An elastic rubber ring 44 is provided at the connection position of the lower slide tube 41 and the sealing piece 42 to cover the gap between the lower slide tube 41 and the sealing piece 42. A torsion spring is provided at the hinged position of the sealing piece 42 and the lower slide tube 41. The torsion spring drives one end of the sealing piece 42 to rotate toward a position close to the central axis of the lower slide tube 41, so that the side walls of the plurality of sealing pieces 42 are close to each other. At the same time, an inclined guide bar 23 is fixed on the inclined surface at the bottom of the partition plate 21. When the sealing piece 42 is tilted, the partition plate 21 moves upward, so that the inclined guide bar 23 guides the end of the sealing piece 42, so that the plurality of sealing pieces 42 and the thorn head 22 seal the bottom of the storage tube 11. At this time, the plurality of sealing pieces 42 cooperate with the partition plate 21 to seal the bottom of the storage tube 11, so as to prevent the collected soil from falling out of the storage tube 11.

[0045] In order to allow the rotating collar 31 to rotate, a rotating block 29 is rotatably connected to the pull rod 292, and a limiting tube 27 is provided on the outer sliding sleeve of the rotating block 29. The rotating block 29 slides up and down inside the limiting tube 27, and the limiting tube 27 limits the position of the rotating block 29. When the pull rod 292 rotates, the rotating block 29 is driven to rotate, and the limiting tube 27 sleeves the connecting column 26 and the top ring 15 inside. The limiting tube 27 is rotatably set on the top ring 15. When the pull rod 292 drives the connecting column 26 to move downward, the rotating block 29 slides inside the limiting tube 27. At the same time, a rotating frame 28 is fixed at the bottom of the limiting tube 27. The shape of the rotating frame 28 is the same as the cross-sectional shape of the combination of several partition plates 21 and the retaining ring 24. At the same time, several rotating bars 281 are fixed at the bottom of the rotating frame 28 near the edge. A plurality of rotation limiting grooves 34 corresponding to the rotating bars 281 are provided on the outer side wall of the rotating collar 31 near the top. The rotating frame 28 drives the rotating ring 31 to rotate by the insertion of the rotating bar 281 and the rotating limiting groove 34. When the rotating ring 31 rotates, the lower tube 41 is pushed downward. When the storage tube 11 penetrates into the soil, the soil will enter the gap between the protective ring 32 and the storage tube 11. The downwardly moving lower tube 41 pushes the soil out from between the protective ring 32 and the storage tube 11. Then the blocking piece 42 rotates and moves upward by pulling the partition 2 so that the blocking piece 42 is guided by the inclined guide bar 23, so that the side wall between the blocking piece 42 and the partition plate 21 contacts, so that the soil entering the storage tube 11 is blocked in the storage tube 11 to prevent the soil from falling. At the same time, this scheme can be used as a transportation device directly to avoid the stratification and confusion during sample storage.

[0046] The above shows and describes the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments. The above embodiments and descriptions are only preferred examples of the present invention and are not intended to limit the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. A storage device for environmental monitoring with a sample extraction function, comprising a storage element (1), characterized in that: The storage element (1) is provided with a partition (2) inside, the partition (2) divides the inside of the storage element (1) into a plurality of chambers, and when the partition (2) moves downward, it drives the storage element (1) to move downward. The storage element (1) is provided with a protective element (3) on the outside, and a blocking element (4) is provided near the lower end of the protective element (3). The blocking element (4) is sleeved on the storage element (1), and the protective element (3) protects the blocking element (4). When the partition (2) rotates, it drives the protective element (3) to move downward. The protective member (3) rotates, and the rotating protective member (3) pushes the blocking member (4) toward the lower side of the storage member (1), so that one end of the blocking member (4) extends to the bottom of the storage member (1), and the blocking member (4) extending to the bottom of the storage member (1) turns over in the direction of the central axis of the storage member (1), and in the process of turning over the blocking member (4), the partition member (2) is pulled up, so that the partition member (2) restricts the turning position of the blocking member (4), so that the blocking member (4) and the partition member (2) cooperate to block the bottom of the storage member (1); The storage element (1) comprises a storage tube (11), the partition element (2) comprises a plurality of partition plates (21) in an annular array, the partition plates (21) being arranged inside the storage tube (11), and the side walls of the partition plates (21) being in contact with the side walls of the storage tube (11), and the plurality of partition plates (21) partition the interior of the storage tube (11) into a plurality of chambers; A plurality of side cabinet bars (12) corresponding to the positions of the partition plates (21) are fixed on the inner wall of the storage tube (11), and a clamping bar (13) is fixed on the top of the plurality of side cabinet bars (12), the partition plates (21) are slidably arranged in the clamping bars (13), and the side edges of the partition plates (21) are slidably arranged in the side cabinet bars (12); A middle tube (14) is fixed between the plurality of clamping strips (13), a middle sliding column (25) is fixed on the upper side of the connection position of the plurality of partition plates (21), the middle sliding column (25) is slidably arranged inside the middle tube (14), a sliding groove for the partition plates (21) to move up and down is provided on the middle tube (14), the middle tube (14) blocks the position where the partition plates (21) move up, one end of the middle sliding column (25) passes through the upper end of the middle tube (14) and is fixed with a connecting column (26); The protective member (3) comprises a rotating collar (31), the rotating collar (31) being sleeved at a position near the upper end of the storage tube (11), a plurality of outer rings (18) being fixed on an outer wall near the top of the storage tube (11), an inner ring groove (33) being provided on the inner wall of the rotating collar (31), the outer ring (18) being slidably disposed in the inner ring groove (33), and a protective collar (32) being rotatably connected at a position near the bottom of the rotating collar (31), a sliding chamber being disposed between the protective collar (32) and the storage tube (11), and the blocking member (4) being disposed in the sliding chamber; The blocking member (4) comprises a lower slide tube (41), the lower slide tube (41) is slidably sleeved on the storage tube (11), and the outer wall of the lower slide tube (41) is in sliding contact with the inner wall of the protective collar (32), a plurality of vertical slide grooves (43) are provided inside the lower slide tube (41), and a plurality of sliding limit blocks (17) are fixed at positions near the bottom of the outer wall of the storage tube (11), and the sliding limit blocks (17) are slidably arranged in the vertical slide grooves (43); The upper side of the downwardly descending tube (41) and the bottom of the rotating collar (31) are both provided with inclined arc surfaces. When the downwardly descending tube (41) is inside the protective collar (32), the bottom of the rotating collar (31) and the top of the downwardly descending tube (41) are in close contact. When the rotating collar (31) rotates, the inclined arc surface of the rotating collar (31) presses the inclined arc surface of the downwardly descending tube (41), so that one end of the downwardly descending tube (41) extends downwardly from the protective collar (32). A plurality of blocking pieces (42) are hingedly connected in an annular array at the bottom of the downwardly descending tube (41); an elastic rubber ring (44) is provided at the position where the downwardly descending tube (41) and the blocking piece (42) are connected, and the elastic rubber ring (44) is provided to cover the gap between the downwardly descending tube (41) and the blocking piece (42); a torsion spring is provided at the position where the blocking piece (42) and the downwardly descending tube (41) are hinged, and the torsion spring drives one end of the blocking piece (42) to rotate toward a position close to the central axis of the downwardly descending tube (41); The bottom of the partition plate (21) is an inclined surface inclined toward the axis of the storage tube (11), and a plurality of partition plates (21) are fixed with spikes (22) at the bottom. An inclined guide bar (23) is fixed to the inclined surface of the bottom of the partition plate (21). When the blocking piece (42) is inclined, the partition plate (21) moves upward, so that the inclined guide bar (23) guides the end of the blocking piece (42), so that the plurality of blocking pieces (42) and the spikes (22) block the bottom of the storage tube (11).

2. The environmental monitoring storage device with sample extraction function according to claim 1, characterized in that: The upper end of the connecting column (26) is threadedly connected to a connecting head (291), and a pull rod (292) is rotatably connected to the connecting head (291), and a rotating block (29) is rotatably connected to the pull rod (292), and the external sliding sleeve of the rotating block (29) is provided with a limiting tube (27), and the rotating block (29) slides up and down inside the limiting tube (27), and the limiting tube (27) sleeves the connecting column (26) and the top ring (15) inside, and the limiting tube (27) is rotatably set on the top ring (15), and a rotating frame (28) is fixed to the bottom of the limiting tube (27), and a plurality of rotating bars (281) are fixed at a position near the edge of the bottom of the rotating frame (28), and a plurality of rotating limiting grooves (34) corresponding to the rotating bars (281) are opened on the outer wall of the rotating ring (31) near the top, and one end of the rotating bar (281) is slidably inserted in the rotating limiting groove (34).

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