KR100747515B1 - An assemble type flowerpot for growing gardening - Google Patents

Abstract

A multi-stage collapsible flower pot which is simple in assembly, installation and disassembly regardless of space and place and useful as a flower pot for soil cultivation of plants and a flower pot for hydroponic cultivation of plants. The multi-stage collapsible flower pot comprises: a body(10) with a plurality of holes(14) for discharging and absorbing water and penetrating the lower end part of a moisture-absorbing wick(42) at a bottom plate(12); a basin body(20) with a plurality of discharge holes(24) on the outer circumferential surface of an inclined main wall(23) which is narrow at the bottom and wide at the top; and a detachable space part(S1), soil cultivation space part and hydroponic cultivation formed between the body and basin body and between basin bodies, wherein the body and basin body is disposed at the upper part of bricks(30) and the bricks is disposed at a bottom plate for forming the basin body and a bottom plate for forming the body.

Description

Multi-stage prefabricated flowerpot for horticultural farming {AN ASSEMBLE TYPE FLOWERPOT FOR GROWING GARDENING}

1 is a perspective view showing a soil pot for the present invention.

Figure 2 is an exploded perspective view of Figure 1;

Figure 3a is a longitudinal sectional view before the soil pots of Figure 1 assembled.

Fig. 3B is a sectional view of the assembled state of Fig. 3A, with the brick seated in the carrying body.

Figure 3c is a cross-sectional view of the combined state of Figure 1 completed.

Figure 4 is a cross-sectional view showing a state carried out in a multi-layer soil pots by assembling the laminate in upright multi-stage.

Figure 5 is a cross-sectional view of a large and small potted plant of the present invention laminated and assembled into a multi-stage pyramid-like multi-layer potted plant for the soil.

Figure 6 is an exploded perspective view showing a pair of pots for hydroponic cultivation of the present invention.

Figure 7 is a cross-sectional view of the combined state of Figure 6 completed

Figure 8 is a cross-sectional view showing a state carried out in a multi-layer hydroponic plant by stacking Figure 7 in an upright multi-stage.

Figure 9 is a longitudinal cross-sectional view of the prefabricated pots for conventional gardening multi-cultivation.

Explanation of symbols on the main parts of the drawings

1: Potted Plants 1a: Hydroponics

10: powder 12: bottom plate for drainage

13,23: inclined circumferential wall of the ordinary light-strait type 14: combined drainage

16,26: Border 20,20a: Concomitant Body

22: bottom plate 24, 24a: water level drainage

27,27a: water tank 30,30a: brick

40: resin fiber cloth 41: vinyl coating

42: moisture absorption core 43: soil

44: Horticultural crops 50: Water level

S1: Insertion Space Part S2: Earthworks Space Part

S3: Hydroponic Space

The present invention relates to a multi-stage assembled planter for horticultural multi-cultivation, and more specifically, to a brick or wood support in the interior of the powder and the accompanying body tapered in a normal light down strait, as another powder and accompanying body, one step or water layer This is assembled and laminated so as to be combined to be a soil pot and a hydroponic pot to form the insertion and removal space portion and the soil space portion and the hydroponic space portion, the assembly and installation of the powder and the accompanying body that combines the soil pot and hydroponic pots It is easy to dismantle and can be easily assembled and installed without being confined to a small space or place, and it is possible to cultivate soil and hydroponic cultivation of many horticultural crops such as vegetables, fruits, vegetables and flowers in a small space or place, such as at home or school. It is proposed to improve the income and landscaping effect of horticultural crops by making it easier.

Conventionally used prefabricated pots for horticultural multi-cultivation, as shown in Figure 9, was published in the Utility Model No. 0367599 (notice date 2004.11.12), and was devised by the applicant of the present application, the storage of several powders (109) It is a structure for installing the drip tray combined support container 100 to facilitate the adjustment of the height of the holding rods 200, the base jaw 103 to form a fresh water passage 102 below the inner circumferential wall. And inserting the inserting rod 104 from the center portion to form a drainage passage 107 communicating with the dripping hole 105 formed in the bottom surface of the circumference portion and the drainage hole 106 formed in the upper end portion. 103) forming a drip tray and a receiving vessel 100 having a structure in which the base circumferential wall 108 is somewhat higher, and the general powder 109 is separated and combined into several pieces in the drip tray and the receiving vessel 100. Built-in pins for each appropriate height Support plate in a state supported by a circular support 111 and a forked support (shown in Fig. 4 of the conventional utility model No. 0367599) (11a) so as to be inserted at an appropriate height of the holding rod 200 bored (110a) The pin 112 is inserted into the pin hole 110a so that the support plate 111 is supported so that the support plate 111 is supported.

However, the conventional structure as described above can be cultivated by planting horticultural crops such as vegetables, fruits, vegetables or flowers, but the structural combination is complicated, the production is cumbersome, there was a disadvantage inconvenient assembly and disassembly.

In addition, there was a drawback that installation work is inconvenient, such as occupying a separate place and space even when installed indoors and outdoors.

In order to solve the drawbacks of the prior art, the present invention is laminated and assembled into a single stage or a stage of a water layer as another powder and accommodating body by using a brick placed on the interior of the powder and the accommodating body formed by the inclined circumferential wall of the ordinary light beam type. To the horticultural and multi-stage assembled planter to combine the powder and the accompanying body and the soil and potted plants for forming the insertion and detachment space portion and the earthwork space portion and the hydroponic space portion between respectively, Its simple structure makes it easy to assemble and dismantle, and it is easy to assemble and install without being confined to a narrow space or place. The purpose is to facilitate the income and landscaping effect of horticultural crops.

In the present invention is configured to be a soil pot (1) and hydroponics (1a) for cultivating horticultural crops,

Powder having a monolithic structure in which an edge frame 16 is formed at an upper end of an inclined circumferential wall 13 of the upper and lower narrow forms formed upwardly from an edge portion of the drainage bottom plate 12 having several drainage-absorbing absorption holes 14 ( 10); A rim 26 is formed at the upper end of the sloped circumferential wall 23 of the upper and lower narrow type formed upwardly from the edge of the bottom plate 22 for the drip tray forming the water tank 27, and at the circumference there are a plurality of water level combined use. Supporting the bricks 30, 30a in the interior of the body 20, 20a of the monolithic structure in which the drain hole 24 is drilled at the height of the first, second, and third stages and installed as the stage of the water layer. A structure seated as much as possible;

The powder 10 and the accompanying body 20 and the accompanying body 20a and the accompanying body 20a are laminated and assembled into a single stage or a plurality of stages on the bricks 30 and 30a. ) And a potted plant (1a) and a potted plant (1a) for forming an inserting / detaking space portion (S1), a landscaping space portion (S2), and a hydroponic space portion (S3) between the abutment body 20 and 20a. It is characterized in that the coupling configuration.

In addition, large and small soil and hydroponic pots (1) formed by laminating and fabricating the powder 10 and the receiving body 20a having a smaller size than the powder 10 and the accompanying body 20 and 20a. (1a) is laminated and assembled in multiple stages so that it can be installed in a pyramid shape, and the brick 30 is cement brick, and the size according to the height and shape depends on the size of the powder 10 or the accompanying body 20, 20a. Produced in accordance with, but in particular to the extent that the powder 10 and the accompanying body (20) (20a) is not covered by the drainage combined absorption hole 14 of the powder (10) by the brick 30, 30a when laminated assembly do.

In addition, the lower end portion of the moisture absorbent core 42 formed by vinyl coating 41 on the periphery of the resin fiber cloth 40 having good moisture absorption function is immersed in the fresh water of the water tank 27 formed in the soil pot 1. , The upper end is embedded in the surface layer of the soil 43 to continue the watering of the horticultural crop 44.

Reference numeral 50 in the drawing indicates the water level of the water tank 27.

Hereinafter, described in detail with reference to the accompanying drawings.

First, Figures 1 and 2 and Figures 3a to 3c is a perspective view and a separate perspective view and a cross-sectional view of the present invention formed to enable soil cultivation laminated powder assembly 10 and the accompanying body in a single stage for earthwork It shows a state configured to be a pot (1).

In the present invention as described above, the brick 30 is placed inside the carrying body 20, and then the bottom of the water absorbing core 42 is fitted into the water absorbing hole 14 for drainage combined use of the powder 10. The lower end of the hygroscopic wick 42 is always laid on the bottom of the water tank 27, and the insertion and removal space portion S1 is formed between the powder 10 and the carrier body 20 so that The soil potted plant (1) is combined.

In this way, while filling the soil 43 inside the powder (10) coupled to the soil pot (1) to plant the horticultural crops 44 or sowing the seeds, wherein the combined drainage holes of the powder (10) The upper end of the moisture absorbent wick 42 in which the lower end portion of the moisture absorbent wick 42 sandwiched by (14) is immersed in the water soaked in the water tank 27 formed from the bottom plate 22 for the drip tray of the carrier body 20. Water in the water tank 27 is supplied to the surface layer portion of the soil 43 by the capillary action of the resin fiber cloth 40 forming the moisture absorption core 42 by embedding the water in the surface layer portion of the soil 43. It becomes a growth source of the horticultural crops 44 planted in 43).

The moisture absorbent wick 42 has a vinyl fiber 41 around the periphery of the resin fiber cloth 40, thereby smoothly supplying water (water) to the soil 43 without aging in the soil 43.

As such, the water consumed while the horticultural crop 44 grows is smoothly and continuously supplied to the surface layer of the soil 43 by the capillary action of the hygroscopic wick 42.

The multiple drainage and absorption holes 14 installed in the bottom plate 12 for drainage of the powder 10 having the above-described sloped circumferential wall 13 of the above-described light beam narrowing type are grown in the horticultural crop 44. Watering at an appropriate time according to the degree to facilitate the drainage and absorption of water to maintain the proper moisture in the interior of the powder (10), the slope of the normal light sub-type to form the powder 10 and the accompanying body (20) The edges 16 and 26 of the structure formed on the upper end of the circumferential wall 13 and 23 are soil formed in one step by the powder 10 and the accompanying body 20 planting the horticultural crop 44. The light pots (1) were easily gripped to facilitate handling and movement.

In the present invention as described above, the powder 10 and the accompanying body 20 are laminated and assembled to form a soil pot (1), the powder plate 10 as the bottom plate 22 for the drip tray of the accompanying body 20 The brick 30 is settled so as to be a supporting neck of the wall, wherein the position of the brick 30 is intercepted by the drain absorbing hole 14 installed in the bottom plate 12 for drainage forming the powder 10. It is settled in a position that is not, and the height of the brick 30 is made to be a height lower than the water level drain hole 24 of the first stage installed through the inclined circumferential wall 23 of the upper and lower narrow type of the accompanying body 20. The above-mentioned powder 10 is stably laminated and assembled in the interior of the accommodating body 20 of the water tank 27 in which the bottom plate 12 for drainage, in which the water-collecting absorption hole 14 is drilled, is formed in the accommodating body 20. The degree of being interviewed and submerged in the water level 50 was preferable.

In addition, the powder body 10 and the accompanying body 20 to be laminated and assembled in a single stage are the same size as the powder 10, the sloped circumferential wall of the vertical light narrowing type entered from the edge of the bottom plate 22 for the drip tray ( 23) the height of the water level dual-use drain hole 24 of the first stage of the multiple water level-use drain holes 24 installed in the periphery of the first to third stages from the bottom plate 22 for the drip tray. A water tank 27 in which water level 50 is formed is formed, and the second and third water level drainage holes 24 of the second and third stages smoothly drain when an excessive amount of water is needed due to artificial or flooding. It was made.

When stacking the above-mentioned powder 10 and the accompanying body 20, the inclined circumferential walls 13 and 23 of each ordinary light-lower narrow type forming the powder 10 and the accompanying body 20 due to the height of the brick 30. By coupling configuration to form the insertion and removal space (S1) between the) to facilitate assembly installation and disassembly.

On the other hand, in the above-described interior of the carrier body 20, two bricks (30) to settle the powder 10 to the upper portion of the brick 30, but the powder (10) to form a soil pot (1) ) Or one or several bricks 30 may be placed in accordance with the shape, structure, and size of the accompanying body 20 to stably laminate and assemble the powder 10.

4 and 5 are another brick (30a) in the multi-stage inside the powder 10 to form the large and small soil potted plants (1), the large and small soil potted plants (1) upright or pyramid-shaped A cross-sectional view showing a state in which the multi-stage laminated assembly is carried out to be a multi-stage earthenware potted plant. First, the soil of the earthenware potted plant 1 formed by laminating and assembling the same or larger powders 10 and the accompanying body 20 is formed. The brick 30 is stably constructed to enable hard cultivation, the soil 43 is filled, and then the soil pots 1 and soil pots 1 are laminated by assembling the soil pots 1 in multiple stages. ), A landscaping space portion (S2) for soil cultivation of the horticultural crop 44 is formed between the combination.

At this time, the laminated assembly state of the soil potted plant (1) was installed so as to be upright or pyramid-like so that more cultivation of the horticultural crop 44 can be.

6 to 8 is a perspective view and a cross-sectional view showing a hydroponic flower pot 1a for hydroponic cultivation using only the accompanying body (20a) and the brick (30a) of the present invention and the hydroponic plant for hydroponic cultivation A cross-sectional view of the embodiment shown by laminating and assembling (1a), the carrying body 20a having the same structure as that of the carrying body 20 for forming the ground potting plant 1 for soil cultivation as described in FIGS. 1 to 5. The hydroponic space portion S3 is formed at the upper part of the accommodating body 20a with the brick 30a formed in multiple stages as the accommodating body 20a for hydroponic cultivation. Multi-layered hydroponic plant (1a) by forming a laminate so as to form a combined state to facilitate the hydroponic cultivation using the hydroponic space portion (S3) is formed.

In the present invention, first, a plurality of water level drainage holes 24 are drilled in three stages on the outer circumferential surface thereof, and are provided with a receiving body 20a for forming a water tank 27 by the bottom plate 22 for the drip tray. As the hydroponic flower pot 1a is formed by constructing several bricks 30a at an appropriate height in the accommodating body 20a and stably placing another prepared accommodating body 20a in the upper part of the brick 30a. A hydroponic space S3 for hydroponic cultivation is formed between the upper and lower carrying bodies 20a that are laminated and assembled.

The hydroponic cultivation of the horticultural crop 44 can be facilitated using only the fresh water in the water tank 27 using the hydroponic space portion S3 formed as described above.

In addition, as shown in FIG. 8, the hydroponics are formed by laminating and assemble each of the accommodating bodies 20a upright while constructing the brick 30a in multiple stages in each of the accommodating bodies 20a forming the hydroponic flower pot 1a. Hydroponics of more horticultural crops (44) is formed because the hydroponic space (S3) for hydroponic cultivation of the horticultural crops (44) is formed between each of the accompanying body (20a) as the pollen (1a) is formed by combining in multiple stages I can grow it.

On the other hand, in the present invention, the powder 10 or the accompanying body (20, 20a) is described in one form of size, but if necessary, various shapes and shapes or small to large size, such as medium and large and mammoth type It can be used as a variety of landscaping and can be used as part of farm income.

The present invention as described above has a simple structure of large and small powders and accommodating body and the accommodating body and the accommodating body to be laminated in one or more stages to form a single stage, or laminated and assembled in multiple stages to be a stage of a water layer. It is a simple structure, easy to assemble and dismantle, and easy to assemble without being confined to a narrow space or place. It can be installed and grows many horticultural crops in small spaces and places such as homes and schools, thereby improving farm household income and landscaping effect, thereby increasing economic efficiency.

In addition, since there is no need for a separate fixing means when installing, there is an effect that anyone can be easily assembled and installed in a private space such as a home or a school, as well as being confined to a narrow space or a place of a public place.

Claims (6)

The edges 16 and 26 are formed in a single body at the upper end of the sloped main walls 13 and 23 of the upper and lower narrow forms formed upward from the edges of the bottom plate 12 for drainage and the bottom plate 22 for drainage. In the structure of, Powder 10 having a structure in which a plurality of water absorbing holes 14 are inserted into the bottom plate 12 for drainage, and the lower end of the moisture absorbing wick 42 is inserted into the bottom plate 12. A structure in which a plurality of water level drainage holes 24 are drilled and installed in three stages on the periphery of the inclined circumferential wall 23 of the upper and lower narrow forms formed upwardly from the edge of the bottom plate 22 for forming the water tank 27. Carriers 20 and 20a of; Brick 30, 30a is placed inside the bottom plate 22 for the drip tray forming the carrier body 20, 20a and the bottom plate 12 for drainage forming the powder 10, and the brick ( 30) The inserting space portion is placed between the powder 10 and the receiving body 20 and the receiving body 20a and the receiving body 20a by mounting the powder 10 and the carrying body 20 on the upper part. Multi-stage assembly type for horticulture multi-farming, characterized in that the laminated and assembled to form a soil pot (1) and a hydroponic pot (1a) to form a (S1) and a soil space portion (S2) and a hydroponic space portion (S3). Flowerpot The method of claim 1, Gardening, characterized in that the brick 30 is placed inside the carrying body 20, and the powder 10 is laminated and assembled on the upper part of the brick 30 so as to be combined to become a soil pot (1). Multi-Stage Prefabricated Flower Pots The method of claim 2, Brick 30 is built in multiple stages inside the powder 10 to be combined to form the soil pot (1), and another soil pot (1) on top of the brick 30 is stacked in an upright shape. Multi-stage assembled planter for horticulture multi-farming, characterized in that the assembly is combined to form the soil space portion (S2) formed inside each powder (10) The method of claim 2, Brick 30 is constructed in multiple stages in the interior of the powder 10 to be combined to make the soil pot (1), and another soil pot (1) on the top of the brick 30 in a pyramid shape Multi-stage assembly planter for horticulture multi-farming, characterized in that the laminated assembly to combine so that the soil space portion (S2) is formed in the interior of each powder (10) The method of claim 1, The brick 30a is constructed in multiple stages inside the carrying body 20a, and the carrying body 20a having the same size and structure as that of the carrying body 20a is laminated and assembled on the top of the brick 30a. Multi-stage assembled planter for horticultural multi-cultivation, characterized in that the combination to be a hydroponic flower pot (1a) to form a hydroponic space (S3) in the interior of (20a) The method of claim 5, Brick 30a is constructed in multiple stages inside the accommodating body 20a which is configured to be the hydroponic pot 1a, and has the same size and structure as the accommodating body 20a on the brick 30a. Multi-stage assembly planter for horticulture multi-farming planting, characterized in that each of the accompanying body (20a) is laminated and assembled in an upright type to combine the hydroponic space (S3) is formed in the interior of each of the accompanying body (20a).

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