Wetland plant transplanting pot

Abstract

The utility model provides a wetland plant transplanting pot. The wetland plant transplanting pot comprises an outer pot and an inner pot, the inner pot comprises a plurality of inner pot plates which can be mutually closed or opened; the outer pot is used for bearing water and a nutrient solution, and the inner pot is used for bearing a to-be-transplanted plant and soil; during transplanting, the inner pot is lifted out of the outer pot and placed in a transplanting pit dug in advance in an outdoor wetland, the multiple inner pot plates are opened, plants to be transplanted and soil in the inner pot are removed, transplanting is completed, then the multiple inner pot plates can be closed again for next transplanting, and the problems that in the prior art, a pot body needs to be damaged during transplanting, and the transplanting efficiency is high are solved. And the problems of inconvenience in operation and material waste are solved.

Description

Technical Field

[0001] The utility model relates to the field of plant transplanting, in particular to a wetland plant transplanting pot. Background Art

[0002] Wetlands are transitional areas between land and water, known as the "kidneys of the earth". They can regulate the climate of a certain area, and wetland plants play a significant role in wetland ecosystems. However, since many wetland plant seedlings are very fragile and have a low survival rate in the wild, they are usually cultivated in indoor transplant pots by hand. When they grow to maturity, they are transplanted to the target wetland outdoors with their roots and soil. Existing transplant pots are made of fired clay or thin plastic paper. When transplanting, the pot body needs to be destroyed by breaking the clay pot or cutting up the plastic paper pot. This transplant pot is inconvenient to operate and very wasteful. Utility Model Content

[0003] The main purpose of the utility model is to provide a wetland plant transplanting pot, so as to at least solve the problems in the prior art that the transplanting pot needs to destroy the pot body to take out the root system, thus causing inconvenience in operation and waste of materials.

[0004] In order to achieve the above-mentioned purpose, the utility model provides a wetland plant transplanting pot including: an outer pot for carrying water and nutrient solution; an inner pot, which is detachably installed in the outer pot, and is used to carry plants to be transplanted and soil; the inner pot is formed by multiple inner pot plates spliced ​​along the circumferential direction, and the multiple inner pot plates can be closed or opened to each other to carry the plants to be transplanted and soil or remove the plants to be transplanted and soil.

[0005] Furthermore, the outer basin is provided with limiting slots at the top ends of two radially opposite side walls thereof, and the inner basin is provided with protruding limiting plates along two radially opposite side walls thereof; wherein the two limiting plates are inserted into the two limiting slots so that the inner basin can be detachably installed in the outer basin.

[0006] Furthermore, the inner basin plate is composed of two pieces, and the inner basin also includes: an annular positioning ring, two limit plates are arranged on the outer wall of the annular positioning ring relatively along the radial direction of the annular positioning ring; the top ends of the two inner basin plates and the bottom ends of the annular positioning ring are hinged to each other so that the two inner basin plates can be closed or opened to each other; a bottom cover, the bottom cover is used to buckle on the bottom ends of the two inner basin plates when the two inner basin plates are closed to each other to close the lower openings of the two inner basin plates.

[0007] Furthermore, the two inner basin plates are symmetrical arc-shaped conical surface structures, and when the two inner basin plates are closed together, a conical cylindrical structure is formed, and the bottom cover is used to close the lower port of the conical cylindrical structure.

[0008] Furthermore, the inner basin also includes: a handle, both ends of which are hinged to the two limit plates; a control mechanism, which is arranged on the handle and connected to the two inner basin plates; wherein the control mechanism is used to control the two inner basin plates to close or open each other.

[0009] Furthermore, the control mechanism includes: a knob, which is movably mounted on the handle along the pulling direction of the handle; a pulley, which has two pulleys, and the two pulleys are correspondingly rotatably mounted on the two limit plates; a traction line, which has two traction lines and corresponds to the two pulleys and the two inner basin plates one by one, one end of the two traction lines is correspondingly fixedly connected to the two ends of the knob, and the other ends of the two traction lines are respectively wound around the two pulleys and fixedly connected to the outer side walls of the two inner basin plates; there are two torsion springs and correspond to the two inner basin plates one by one, and the torsion springs are fixedly mounted at the hinge of the inner basin plate and the annular positioning ring, wherein the two inner basin plates are in a closed state under the elastic force of the two torsion springs, and the handle is used to pull the two inner basin plates through the two traction lines under the action of external force so that the two inner basin plates can be opened to each other.

[0010] Furthermore, the inner basin also includes: an annular clamp, two limit plates are relatively arranged on the outer wall of the annular clamp along the annular clamp; a bottom cover, which is used to buckle on the bottom ends of the multiple inner basin plates when the multiple inner basin plates are closed to each other to close the inner basin; wherein the annular clamp is sleeved on the outer walls of the multiple inner basin plates to fasten the multiple inner basin plates.

[0011] Furthermore, the multiple inner basin panels include multiple first inner basin panels and a second inner basin panel, the two side edges of the first inner basin panel are respectively provided with tenons and matching tenons, the two side edges of the second inner basin panel are provided with tenons corresponding to the first inner basin panel, and the multiple inner basin panels also include: tenons, which are used to mortise and tenon the first inner basin panel and the second inner basin panel; wherein the multiple first inner basin panels are tightly connected end to end through the tenons and tenons, the tenon on one side of the second inner basin panel is mortised with the tenon of the adjacent first inner basin panel, and the tenon on the other side of the second inner basin panel is mortised with the tenon of another adjacent first inner basin panel through the tenon, so that the multiple inner basin panels are closed to each other.

[0012] Furthermore, the inner basin plate includes an arc plate portion located at the top and a conical arc plate portion located at the bottom; wherein the tenon and the tenon groove are arranged on both sides of the arc plate portion, and the bottom cover is buckled on the lower port surrounded by multiple arc plate portions.

[0013] The wetland plant transplanting pot using the technical solution of the utility model comprises: an outer pot for carrying water and nutrient solution; an inner pot, which is detachably installed in the outer pot, and is used to carry plants to be transplanted and soil; the inner pot is formed by a plurality of inner pot plates spliced ​​together along the circumferential direction, and the plurality of inner pot plates can be closed or opened to carry the plants to be transplanted and soil or to remove the plants to be transplanted and soil; when the outer pot and the inner pot are combined together, the wetland plants can be normally cultivated in a planting greenhouse, and when transplanting, the inner pot is taken out of the outer pot and placed in a transplanting pit pre-dug in an outdoor wetland, and then the plurality of inner pot plates are opened so that the plants to be transplanted and soil carried by the inner pot naturally fall into the transplanting pit, completing the transplanting; thereafter, the plurality of inner pot plates can be closed again to carry the soil in preparation for the next transplanting and planting; through this convenient and repeatedly openable and closed method, the problem of the need to destroy the pot body during transplanting in the prior art, resulting in inconvenient operation during transplanting and waste of transplanting pot materials, is solved. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] The drawings constituting part of the present application are used to provide a further understanding of the present invention. The exemplary embodiments of the present invention and their descriptions are used to explain the present invention and do not constitute an improper limitation on the present invention. In the drawings:

[0015] Figure 1 This is a schematic diagram of the three-dimensional structure of a wetland plant transplanting pot that can be selected according to the first embodiment of the utility model;

[0016] Figure 2 It is a detailed structural schematic diagram of a wetland plant transplanting pot that can be selected according to the first embodiment of the utility model;

[0017] Figure 3 This is a schematic diagram of an open state of an inner pot of a wetland plant transplanting pot that can be selected according to the first embodiment of the utility model;

[0018] Figure 4 This is a schematic diagram of the three-dimensional structure of a wetland plant transplanting pot that can be selected according to the second embodiment of the utility model;

[0019] Figure 5 It is a detailed structural diagram of a wetland plant transplanting pot that can be selected according to the second embodiment of the utility model;

[0020] Figure 6 This is a schematic diagram of an open state of an inner pot of a wetland plant transplanting pot that can be selected according to the second embodiment of the utility model;

[0021] The above drawings include the following reference numerals:

[0022] 10. Outer basin; 11. Limiting notch; 20. Inner basin; 21. Inner basin plate; 211. First inner basin plate; 212. Second inner basin plate; 213. Tenon; 22. Limiting plate; 23. Annular positioning ring; 24. Bottom cover; 25. Handle; 26. Control mechanism; 261. Knob; 262. Pulley; 263. Traction line; 264. Torsion spring; 27. Annular clamp. DETAILED DESCRIPTION

[0023] It should be noted that, in the absence of conflict, the embodiments and features in the embodiments of the present application can be combined with each other. The present utility model will be described in detail below with reference to the accompanying drawings and in combination with the embodiments.

[0024] The utility model discloses a wetland plant transplanting pot, such as Figures 1 to 6 As shown, it includes an outer basin 10 and an inner basin 20; the outer basin 10 is used to carry water and nutrient solution; the inner basin 20 can be detachably installed in the outer basin 10, and the inner basin 20 is used to carry plants to be transplanted and soil; the inner basin 20 is formed by splicing a plurality of inner basin plates 21 along the circumferential direction, and a plurality of small holes are opened on the plurality of inner basin plates 21, and the liquid in the outer basin 10 can enter the soil of the inner basin 20 through the small holes; the plurality of inner basin plates 21 can be closed or opened to carry the plants to be transplanted and soil or remove the plants to be transplanted and soil, and the outer basin and the inner basin are combined together. Wetland plants can be cultivated normally in the planting greenhouse. When transplanting, the inner pot is taken out of the outer pot and placed in a transplanting pit dug in advance in the outdoor wetland. Then, the multiple inner pot boards are opened to allow the plants to be transplanted and the soil carried by the inner pot to fall naturally into the transplanting pit, and the transplanting is completed. After that, the multiple inner pot boards can be closed again to carry the soil for the next transplanting and planting. Through this convenient and repeatedly openable and closed method, the problem of the need to destroy the pot body during transplanting in the prior art, which leads to inconvenient operation during transplanting and waste of transplanting pot materials, is solved.

[0025] Furthermore, if Figures 1 to 6 As shown, the outer basin 10 is provided with limiting slots 11 at the top of the two radially opposite side walls thereof, the limiting slots 11 are L-shaped, having a vertical section and a horizontal section conforming to the curvature direction of the outer wall, the horizontal section is connected to the bottom end of the vertical section, and the inner basin 20 is provided with protruding limiting plates 22 along the two radially opposite side walls thereof; the width of the limiting plates 22 corresponds to the width of the vertical section of the limiting slot 11, so as to ensure that the limiting plates 22 can smoothly fall to the bottom of the vertical section, and the thickness of the limiting plates 22 also corresponds to the height of the horizontal section of the limiting slot 11, so as to ensure that the limiting plates 22 can be rotated and inserted along the preset horizontal section; the inner basin is first inserted into the vertical sections of the two limiting slots 11 through the two limiting plates 22, and then rotated axially to the end of the horizontal section, so that the inner basin 20 can be detachably installed in the outer basin 10, thereby avoiding the buoyancy of water from affecting the stability of the inner basin 20.

[0026] Embodiment 1:

[0027] like Figures 1 to 3 As shown, the inner basin plate 21 is composed of two pieces, and the inner basin 20 also includes an annular positioning ring 23 and a bottom cover 24; two limit plates 22 are relatively arranged on the outer wall of the annular positioning ring 23 along the radial direction of the annular positioning ring 23 to ensure the force balance of the inner basin 20; the middle parts of the top ends of the two inner basin plates 21 and the bottom ends of the annular positioning ring 23 are hinged to each other so that the two inner basin plates 21 can rotate relative to each other and thus close or open to each other; the bottom cover 24 is used to buckle on the bottom ends of the two inner basin plates 21 when the two inner basin plates 21 are closed to each other to close the lower ports of the two inner basin plates.

[0028] Furthermore, if Figures 1 to 3 As shown, the two inner basin plates 21 are symmetrical arc-shaped conical structures. When the two inner basin plates 21 are closed together, a conical barrel structure is formed. The conical barrel shape is an inverted truncated cone. When closed together, there is a circular hole at the bottom. The bottom cover is used to seal the lower end hole of the conical barrel structure.

[0029] Furthermore, if Figures 2 to 3 As shown, the inner basin 20 also includes a handle 25 and a control mechanism 26; the two ends of the handle 25 are hinged to the two limit plates 22; the control mechanism 26 is connected to the handle 25 and the two inner basin plates 21 to control the two inner basin plates 21 to close or open each other. By setting the handle 25, the inner basin 20 can be easily lifted out of the outer basin 10 and moved. The control mechanism 26 is set on the handle 25 to easily open or close the two inner basin plates 21 to facilitate the transplanting of wetland plants.

[0030] Furthermore, if Figures 2 to 3 As shown, the control mechanism 26 includes a knob 261, a pulley 262, a traction line 263, and a torsion spring 264; the knob 261 is movably mounted on the handle 25 along the lifting direction of the handle 25; there are two pulleys 262, the two pulleys 262 correspond to the two limit plates 22 and are rotatably mounted on the limit plates 22, and the hinged position of the pulley 262 relative to the handle 25 and the limit plate 22 is closer to the inside; there are two traction lines 263 and they correspond to the two pulleys 262 and the two inner basin plates 21 one by one, one end of the two traction lines 263 is fixedly connected to the knob 261, and the other end of the two traction lines 263 is wound around the pulley 262 and the two inner basin plates 21 One end of the plate 21 is fixedly connected; there are two torsion springs 264 and they correspond to the two inner basin plates 21 one by one. The torsion springs 264 are fixedly installed at the hinge of the inner basin plate 21 and the annular positioning ring 23 to close the inner basin plates 21 that are opened to each other; when the knob 261 is squeezed, the knob 261 moves toward the handle direction close to the handle 25, and the two traction lines 263 pull the two inner basin plates 21 to open to each other through the pulley 262, so that the plants to be transplanted and the soil are released from the lower opening; the knob 261 is released, and at this time, the two inner basin plates 21 are closed to each other under the elastic force of the torsion springs 264, and the two traction lines 263 are pulled to restore the knob 261 to its original position.

[0031] When in use, the planter first closes the two inner pot plates 21 to seal the lower end of the inner pot 20, then pours soil into the inner pot 20, and then plants the seedlings. Then, the inner pot 20 is lifted up and the limiting plate 22 is aligned with the two limiting slots 11 of the outer pot 10 and then put into the pot. When the limiting plate 22 is inserted into the bottom of the vertical section of the limiting slot 11, the limiting plate 22 is twisted axially to make the inner pot 20 firmly mounted on the outer pot 10. Water or culture solution is poured into the outer pot 10. The planting in the transplanting pot is completed; when the plant grows to meet the transplanting conditions, the limit plate 22 is twisted to lift the inner pot 20, the bottom cover 24 is pulled out and the inner pot 20 is placed in the transplanting pit, the handle 261 is squeezed to open the two inner pot plates 21, and the inner pot 20 is lifted upward, and the transplanted plants and soil are left in the transplanting pit, and the transplanting is completed; the handle 261 is released, and the two inner pot plates 21 are automatically closed under the action of the torsion spring 264 to carry the soil and wait for the next transplanting.

[0032] Embodiment 2:

[0033] like Figures 4 to 6 As shown, the inner basin 20 also includes an annular clamp 27 and a bottom cover 24; the annular clamp 27 can be divided into two semicircular arcs, and the two semicircular arcs are assembled on the outer walls of the multiple inner basin plates 21 to form a complete circular ring, and the two limit plates 22 are relatively arranged on the middle section of the outer side walls of each semicircular arc along the annular clamp 27; the bottom cover 24 is used to buckle on the bottom ends of the multiple inner basin plates 21 when the multiple inner basin plates 21 are closed to each other to close the inner basin 20; wherein, the annular clamp 27 is sleeved on the outer side walls of the multiple inner basin plates 21 to fasten the multiple inner basin plates 21.

[0034] Furthermore, if Figures 4 to 6 As shown, the plurality of inner basin plates 21 include a plurality of first inner basin plates 211 and a second inner basin plate 212. The two side edges of the first inner basin plate 211 are respectively provided with tenons and matching tenons. The two side edges of the second inner basin plate 212 are both provided with tenons corresponding to the first inner basin plate 211. The plurality of inner basin plates 21 also include: tenons 213, which are used to tenon the first inner basin plate 211 and the second inner basin plate 212. The outer side walls of the plurality of first inner basin plates 211 and the second inner basin plate 212 are provided with arc-shaped tenons. The plurality of first inner basin plates 211 and the second inner basin plate 212 are provided with arc-shaped tenons. The arc-shaped tenon of the second inner basin plate 212 is assembled together to form a continuous annular tenon ring, and a tenon groove corresponding to the tenon ring is opened inside the annular clamp 27 to allow the annular clamp 27 to be inserted; multiple first inner basin plates 211 are tightly connected end to end through the tenon and the tenon groove, the tenon groove on one side of the second inner basin plate 212 is mortise-jointed with the tenon groove of the last first inner basin plate 211, and the tenon groove on the other side of the second inner basin plate 212 is mortise-jointed with the tenon groove of the first first inner basin plate 211 through the tenon piece 213, so that multiple inner basin plates 21 are closed to each other to carry the plants and soil to be transplanted.

[0035] Furthermore, if Figures 4 to 6 As shown, the multiple first inner basin plates 211 and the second inner basin plates 212 include an arc plate portion located at the top and a conical arc plate portion located at the bottom. When the multiple first inner basin plates 211 and the second inner basin plates 212 are closed to each other, the arc plate portions of the multiple first inner basin plates 211 and the second inner basin plates 212 are enclosed into a cylindrical shape, and the conical arc plate portions are enclosed into an inverted truncated cone shape. The bottom of the enclosed truncated cone is a circular opening, and the bottom cover 24 is buckled on the lower circular opening enclosed by the multiple arc plate portions to prevent soil loss; the tenon and the tenon groove are arranged on both sides of the arc plate portion for easy plug-in.

[0036] When in use, the planting personnel first assemble the inner pot 20, then pour the soil into the inner pot 20, and then plant the seedlings, then lift the inner pot 20 and align the limiting plate 22 with the two limiting slots 11 of the outer pot 10 and put it in. When the limiting plate 22 is stuck in the bottom of the vertical section of the limiting slot 11, the limiting plate 22 is twisted axially to make the inner pot 20 firmly supported on the outer pot 10; water or culture solution is poured into the outer pot 10 to complete the planting in the transplanting pot; when the plant grows to meet the transplanting conditions, the limiting plate 22 is twisted to lift the inner pot 20, the bottom cover 24 is pulled out and the inner pot 20 is placed in the transplanting pit, the annular clamp 27 is removed and the tenon 213 is pulled out, and then the second inner pot plate 212 is pulled out and the first inner pot plate 211 is pulled out in sequence, and the plant and soil are transplanted; finally, the multiple pulled-out inner pot plates 21 can be assembled again, and then the annular clamp 27 is assembled, waiting for the next transplanting.

[0037] The above description is only the preferred embodiment of the utility model, and is not intended to limit the utility model. For those skilled in the art, the utility model can have various modifications and changes. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the utility model shall be included in the protection scope of the utility model.

Claims

1. A wetland plant transplanting pot, characterized in that: include: An outer basin (10), wherein the outer basin (10) is used to carry water and nutrient solution; An inner basin (20), the inner basin (20) being detachably mounted in the outer basin (10), the inner basin (20) being used to carry the plants to be transplanted and soil; the inner basin (20) being formed by a plurality of inner basin plates (21) spliced ​​together along the circumferential direction, the plurality of inner basin plates (21) being able to be closed or opened to each other to carry the plants to be transplanted or to remove the plants to be transplanted.

2. The wetland plant transplanting pot according to claim 1, characterized in that: The outer basin (10) is provided with limiting slots (11) at the top ends of two radially opposite side walls thereof, and the inner basin (20) is provided with protruding limiting plates (22) at the top ends of two radially opposite side walls thereof; The two limiting plates (22) are inserted into the two limiting slots (11) so that the inner basin (20) can be detachably mounted in the outer basin (10).

3. The wetland plant transplanting pot according to claim 2, characterized in that: The inner basin plate (21) is composed of two pieces, and the inner basin (20) further comprises: an annular positioning ring (23), wherein the two limiting plates (22) are arranged on the outer side wall of the annular positioning ring (23) in a radial direction thereof and opposite to each other; the top ends of the two inner basin plates (21) are hingedly connected to the bottom ends of the annular positioning ring (23) so that the two inner basin plates (21) can be closed or opened with each other; A bottom cover (24) is used to buckle on the bottom ends of the two inner basin plates (21) when the two inner basin plates (21) are closed to each other so as to close the lower ends of the two inner basin plates (21).

4. The wetland plant transplanting pot according to claim 3, characterized in that: The two inner basin plates (21) are symmetrical arc-shaped conical surface structures. When the two inner basin plates (21) are closed together, a conical cylindrical structure is formed. The bottom cover (24) is used to close the lower end of the conical cylindrical structure.

5. The wetland plant transplanting pot according to claim 4, characterized in that: The inner basin (20) further comprises: A handle (25), wherein two ends of the handle (25) are hingedly connected to the two limiting plates (22); A control mechanism (26), wherein the control mechanism (26) is arranged on the handle (25) and connected to the two inner basin plates (21); Wherein, the control mechanism (26) is used to control the two inner basin plates (21) to close or open to each other.

6. The wetland plant transplanting pot according to claim 5, characterized in that: The control mechanism (26) comprises: a knob (261), the knob (261) being movably mounted on the handle (25) along a pulling direction of the handle (25); Pulleys (262), there are two pulleys (262), and the two pulleys (262) are rotatably mounted on the two limiting plates (22) respectively; Pulling wires (263), the pulling wires (263) being two in number and corresponding to the two pulleys (262) and the two inner basin plates (21) one by one, one end of the two pulling wires (263) being fixedly connected to the two ends of the handle (261) respectively, and the other ends of the two pulling wires (263) being respectively wound around the two pulleys (262) and fixedly connected to the outer side walls of the two inner basin plates (21); Torsion springs (264), two torsion springs (264) corresponding one to one to the two inner basin plates (21), and the torsion springs (264) are fixedly mounted at the hinge between the inner basin plate (21) and the annular positioning ring (23); The two inner basin plates (21) are in a closed state under the elastic force of the two torsion springs (264), and the handle (25) is used to pull the two inner basin plates (21) through the two traction lines (263) under the action of an external force so that the two inner basin plates (21) are opened to each other.

7. The wetland plant transplanting pot according to claim 2, characterized in that: The inner basin (20) further comprises: an annular clamp (27), wherein the two limiting plates (22) are arranged on the outer side wall of the annular clamp (27) opposite to each other along the annular clamp (27); A bottom cover (24), the bottom cover (24) being used to buckle onto the bottom ends of the plurality of inner basin plates (21) when the plurality of inner basin plates (21) are closed to each other so as to seal the inner basin (20); The annular clamp (27) is sleeved on the outer side walls of the plurality of inner basin plates (21) to fasten the plurality of inner basin plates (21).

8. The wetland plant transplanting pot according to claim 7, characterized in that: The plurality of inner basin plates (21) include a plurality of first inner basin plates (211) and a second inner basin plate (212), wherein two side edges of the first inner basin plate (211) are respectively provided with tenons and matching tenon grooves, and two side edges of the second inner basin plate (212) are both provided with tenon grooves corresponding to the first inner basin plate (211), and the plurality of inner basin plates (21) further include: A tenon (213), the tenon (213) being used for tenoning the first inner basin plate (211) and the second inner basin plate (212); Wherein, a plurality of the first inner basin panels (211) are tightly connected end to end through tenons and mortises, a mortise and tenon on one side of the second inner basin panel (212) is mortise-jointed with a mortise and tenon of an adjacent first inner basin panel (211), and a mortise and tenon on the other side of the second inner basin panel (212) is mortise-jointed with a mortise and tenon of another adjacent first inner basin panel (211) through the tenon piece (213), so that the plurality of inner basin panels (21) are closed to each other.

9. The wetland plant transplanting pot according to claim 8, characterized in that: The inner basin plate (21) comprises a circular arc plate portion located at the top and a conical arc plate portion located at the bottom; The tenon and the tenon groove are arranged on two side edges of the circular arc plate portion, and the bottom cover (24) is buckled on the lower port surrounded by a plurality of the circular arc plate portions.

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