Method for Manufacturing Biodegradable Flower Pots Using White Grub Fecal Soil

Abstract

The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, and is an invention of a technology that makes the repotting process easier and prevents environmental pollution caused by the flowerpot by manufacturing a biodegradable flowerpot using the excrement of a grub. Specifically, the main components include: a vermicompost preparation step (S100) for preparing vermicompost; a slurry vermicompost formation step (S200) for forming a slurry-type slurry vermicompost by mixing additives into the vermicompost; and a flowerpot body formation step (S300) for forming a flowerpot body (100) using the slurry vermicompost.

Description

Technology Field

[0001] The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, and is an invention of a technology that makes the repotting process easier and prevents environmental pollution caused by the flowerpot by manufacturing a biodegradable flowerpot using the excrement of a grub. Background Technology

[0003] Patent Document 1 presents a technology for manufacturing by mixing a composition comprising 35-45% by weight of recycled pulp, 20-25% by weight of seashell powder, 20-25% by weight of dried fruit or vegetable peel powder, and 5-15% by weight of natural adhesive, kneading the mixture, heating and pressing it into a mold with multiple perforations, and then heat-drying it.

[0004] Patent Document 2 presents a technology in which a biodegradable flowerpot is biodegradable by microorganisms on the inside and has waterproofing and coating functions on the surface through a process comprising: a first step of purchasing raw materials from natural by-products; a second step of crushing and grinding the natural by-products; a third step of mixing additives such as starch (or starch), red clay, and clay; a fourth step of compression molding by heating and pressurizing and drying; and a fifth step of waterproofing coating treatment on the dried flowerpot shape using plant-based paints such as lacquer, cashew, fish oil, and oil.

[0005] Patent Document 3 presents a technology comprising: an outer pot made of natural chemical stone; and an inner pot made of charcoal, processed into a shape that can be inserted and separated from the interior of the outer pot, having a drainage hole formed on the bottom surface, and filled with soil for planting succulent plants.

[0006] Patent Document 4 presents a technology comprising: a body formed by rolling multiple layers of flat paper diagonally into a tubular shape with a central penetration, and having a reinforcing rim formed by rolling the lower and upper ends inward; a support that supports the roots of a plant and seals the lower part of the body by being supported by the reinforcing rim provided at the lower part of the body; and a supporter provided at the upper part of the body and having a fixing hole formed in the center to support the stem of the plant. Prior art literature

[0008] (Patent Document 0001) KR 10-1775391 B1 (Registration Date August 31, 2017)(Patent Document 0002) KR 10-2011-0015487 A (Publication Date February 16, 2011)(Patent Document 0003) KR 10-2023-0090125 A (Publication Date June 21, 2023)(Patent Document 0004) KR 10-2012-0093017 A (Publication Date August 22, 2012) The problem to be solved

[0009] The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, and is an invention of a technology that makes the repotting process easier and prevents environmental pollution caused by the flowerpot by manufacturing a biodegradable flowerpot using the excrement of a grub. means of solving the problem

[0011] The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, comprising: an excrement preparation step (S100) for preparing excrement; a slurry excrement formation step (S200) for forming a slurry-type slurry excrement by mixing additives into the excrement; and a flowerpot body formation step (S300) for forming a flowerpot body (100) using the slurry excrement.

[0012] The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein the excrement preparation step (S100) includes an excrement stirring step (S110) for stirring the excrement, an excrement moisture removal step (S120) for removing moisture from the stirred excrement, and a powder excrement formation step (S130) for forming powder excrement in the form of powder.

[0013] The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein the slurry excrement forming step (S200) comprises a powder excrement input step (S210) for inputting a selected amount of powder excrement, an additive input step (S220) for inputting a selected amount of additive, and a slurry excrement stirring step (S230) for stirring the powder excrement and the additive.

[0014] The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein the flowerpot body forming step (S300) includes a flowerpot body thickness control step (S310) for controlling the thickness of the flowerpot body (100).

[0015] The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein the flowerpot body forming step (S300) includes an entrance part strength increasing step (S320) that increases the strength of the entrance part (110) open in the flowerpot body (100).

[0016] The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein the flowerpot body forming step (S300) includes a drainage hole forming step (S330) for forming a drainage hole (120) in the flowerpot body (100).

[0017] The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein the flowerpot body forming step (S300) includes a flowerpot body connecting part forming step (340) that forms a flowerpot body connecting part (105) to which the lower part of the flowerpot body is connected.

[0018] The present invention includes a flowerpot produced using a method for producing a biodegradable flowerpot using grub excrement. Effects of the invention

[0020] The present invention manufactures a flowerpot using the excrement of a grub, which not only supplies nutrients but also allows the plant to be planted directly during the repotting process, thereby facilitating the repotting process. Since the present invention manufactures the flowerpot using eco-friendly materials, it has the effect of preventing environmental pollution. The present invention is capable of releasing an appropriate amount of moisture while maintaining strength, and also has the effect of not hindering the root diffusion of plants. Brief explanation of the drawing

[0022] FIG. 1 is a diagram showing a method for manufacturing a biodegradable flowerpot using the vermicompost of a beetle according to the present invention. FIG. 2 is a perspective view of a biodegradable flowerpot using the vermicompost of a grub according to the present invention. FIG. 3 is another drawing showing a method for manufacturing a biodegradable flowerpot using the vermicompost of a beetle according to the present invention. FIG. 4 is a diagram showing the preparation step of the vermicompost according to the present invention. FIG. 5 is a diagram showing the slurry vermicompost formation step of the present invention and a cross-sectional view of a stirring device. FIG. 6 is a diagram showing the flowerpot body thickness control step of the present invention. FIG. 7 is a cross-sectional view of the flowerpot body of the present invention. FIG. 8 is a diagram showing the strength enhancement step of the inlet section of the present invention. FIG. 9 is a cross-sectional view of the inlet portion of the present invention. FIG. 10 is a diagram showing the drainage hole formation step of the present invention. FIG. 11 is another cross-sectional view of the flowerpot body of the present invention. FIG. 12 is a drawing showing the step of forming the flowerpot body coupling part of the present invention. Specific details for implementing the invention

[0023] Hereinafter, the most preferred embodiment of the present invention is described in detail to enable a person skilled in the art to easily practice the present invention. The reference numbers of the embodiments are not limited to designated numbers, and all numbers may be accepted. The configurations presented in the embodiments may be extended to objects that produce the same purpose and effect. Sub-concepts of the configurations presented in the embodiments may be deemed implied even if they are not explicitly stated.

[0025] (Example 1-1) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, comprising: an excrement preparation step (S100) for preparing excrement; a slurry excrement formation step (S200) for forming a slurry-type slurry excrement by mixing an additive with the excrement; and a flowerpot body formation step (S300) for forming a flowerpot body (100) using the slurry excrement.

[0026] (Example 1-2) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub. In Example 1-1, the flowerpot body forming step (S300) forms a flowerpot body (100) using a mold.

[0027] (Example 1-3) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein Example 1-1 further includes a flowerpot body completion step (S400) for drying the flowerpot body (100) formed in the flowerpot body formation step (S300).

[0028] (Examples 1-4) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub. In Example 1-3, the flowerpot body completion step (S400) includes a flowerpot body drying temperature control step (S410) for controlling the temperature for drying the flowerpot body (100) and a flowerpot body drying pressure control step (S420) for controlling the pressure for drying the flowerpot body (100).

[0029] Referring to FIGS. 1 to 3, the present invention includes a vermicompost preparation step (S100) for preparing vermicompost of a grub, a slurry vermicompost formation step (S200) for forming a slurry-type slurry vermicompost by mixing additives into the vermicompost, and a flowerpot body formation step (S300) for forming a flowerpot body (100) using the slurry vermicompost.

[0030] The present invention can provide natural nutrients to plants by forming a biodegradable flowerpot using the excrement of a grub, and since the flowerpot is formed using the excrement of a grub, the flowerpot body (100) can be planted as is without a separate repotting operation, so it is not only easy to use but also prevents environmental pollution.

[0031] At this time, the flowerpot body forming step (S300) can form the flowerpot body (100) using a mold with slurry vermicompost, thereby enabling easy manufacturing and mass production of the flowerpot.

[0032] In addition, the present invention may include a flowerpot body completion step (S400) for forming a final flowerpot by drying the flowerpot body (100) formed in the flowerpot body formation step (S300). The flowerpot body completion step (S400) includes a flowerpot body drying temperature control step (S410) for controlling the temperature for drying the flowerpot body (100) and a flowerpot body drying pressure control step (S420) for controlling the pressure for drying the flowerpot body (100). Through this, the flowerpot body completion step (S400) performs drying by controlling the optimal temperature and pressure for drying the flowerpot using the larvae's excrement, thereby forming a flowerpot that is sturdy and has a high degree of completion compared to drying at room temperature.

[0034] (Example 2-1) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub. In Example 1-1, the excrement preparation step (S100) comprises an excrement stirring step (S110) for stirring the excrement, an excrement moisture removal step (S120) for removing moisture from the stirred excrement, and a powder excrement formation step (S130) for forming powder excrement in powder form.

[0035] (Example 2-2) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein in Example 2-1, the powder excrement forming step (S130) includes a powder excrement classification step (S131) ​​for classifying powder excrement having a selected size.

[0036] (Example 2-3) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub. In Example 2-2, the powder excrement classification step (S131) ​​uses a mesh net having a spacing of a selected size.

[0037] (Example 2-4) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub. In Example 2-2, the powder excrement forming step (S130) includes a powder excrement crushing step (S132) for crushing the powder excrement to have a selected size.

[0038] (Examples 2-5) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub. In Example 2-4, the powder excrement grinding step (S132) utilizes one or more methods selected from grinding by compression, grinding by impact, and grinding by vibration.

[0039] Referring to FIG. 4, the vermicompost preparation step (S100) of the present invention includes a vermicompost stirring step (S110) for stirring the vermicompost, a vermicompost moisture removal step (S20) for removing moisture from the stirred vermicompost, and a powder vermicompost formation step (S130) for forming powder vermicompost in powder form.

[0040] That is, the vermicompost preparation step (S100) involves stirring vermicompost obtained from various locations and forming it into powdered vermicompost with the same size and same vermicompost content, thereby enabling the formation of a flowerpot body (100) with uniform quality.

[0041] The vermicompost stirring step (S110) can perform the stirring operation of the vermicompost using a stirrer.

[0042] The vermicompost moisture removal step (S120) is a step for removing moisture from the stirred vermicompost, and moisture can be removed by drying at room temperature, or a precise moisture removal operation can be performed under conditions having a selected temperature and pressure using a dryer, etc.

[0043] The powdered vermicompost formation step (S130) includes a powdered vermicompost classification step (S131) ​​for classifying powdered vermicompost having a selected size. The powdered vermicompost classification step (S131) ​​may utilize a mesh net having a selected size spacing. Of course, the powdered vermicompost classification step (S131) ​​can be utilized by various means as long as it facilitates the classification of powdered vermicompost of the selected size.

[0044] In addition, the powdered vermicompost formation step (S130) may include a powdered vermicompost crushing step (S132) for crushing the powdered vermicompost to have a selected size. The powdered vermicompost crushing step (S132) can increase the utilization rate of the vermicompost by crushing powdered vermicompost larger than the selected size to form powdered vermicompost of the selected size.

[0045] The powder vermicompost crushing step (S132) can crush the powder vermicompost by using one or more selected from crushing by compression, crushing by impact, and crushing by vibration, which crushes by applying continuous vibration to the powder vermicompost.

[0047] (Example 3-1) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein in Example 2-1, the slurry excrement forming step (S200) comprises a powder excrement input step (S210) for inputting a selected amount of powder excrement, an additive input step (S220) for inputting a selected amount of additive, and a slurry excrement stirring step (S230) for stirring the powder excrement and the additive.

[0048] (Example 3-2) The present invention relates to a method for manufacturing a biodegradable flowerpot using grub excrement, wherein in Example 3-1, the additive includes water.

[0049] (Example 3-3) The present invention relates to a method for manufacturing a biodegradable flowerpot using grub excrement, wherein in Example 3-2, the additive further comprises a coagulant.

[0050] (Examples 3-4) The present invention relates to a method for manufacturing biodegradable pollen using grub excrement, wherein in Example 3-3, the coagulant comprises starch.

[0051] (Examples 3-5) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein in Example 3-3), the additive comprises a plant-based composite material.

[0052] (Examples 3-6) The present invention relates to a method for manufacturing a biodegradable flowerpot using grub excrement, wherein the plant composite material includes straw.

[0053] (Examples 3-7) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein the slurry excrement formation step (S200) utilizes a stirring device (200).

[0054] (Examples 3-8) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein the stirring device (200) comprises a stirring device body (210), a powdered excrement input section (220) into which powdered excrement is introduced into the stirring device body (210), an additive input section (230) into which an additive is introduced into the stirring device body (210), a stirring means (240) for stirring the introduced powdered excrement and the additive, and a stirring means power supply section (250) for supplying power for the operation of the stirring means (240).

[0055] Referring to FIG. 5, the slurry vermicompost formation step (S200) of the present invention includes a powder vermicompost input step (S210) for inputting a selected amount of powder vermicompost, an additive input step (S220) for inputting a selected amount of additive, and a slurry vermicompost stirring step (S230) for stirring the powder vermicompost and the additive to form a slurry vermicompost.

[0056] At this time, the additive includes water that can be added to powdered vermicompost to form a slurry-type vermicompost.

[0057] Additionally, the additive may include a coagulant to facilitate the manufacture of the flowerpot body (100), and the coagulant may include starch. Of course, the coagulant may include various materials as long as it enables the easy manufacture of the flowerpot body (100) having a certain strength.

[0058] In addition, the additive may include a plant-based composite material. The plant-based composite material may include straw, and the plant-based composite material may enable the formation of a flowerpot body having a certain strength when the flowerpot body (100) is formed.

[0059] At this time, the slurry vermicompost formation step (S200) can be performed by mixing powder vermicompost and additives using a mixing device (200). An example of the mixing device (200) includes a mixing device body (210) that forms a certain space inside, a powder vermicompost input section (220) into which powder vermicompost is introduced into the mixing device body (210), an additive input section (230) into which additives are introduced into the mixing device body (210), a mixing means (240) formed inside the mixing device body (210) to mix the introduced powder vermicompost and additives, and a mixing means power supply section (250) that supplies power for the operation of the mixing means (240).

[0060] At this time, the powdered vermicompost input section (220) and the additive input section (230) may include a powdered vermicompost input control section and an additive input control section that control the amount of vermicompost and additives to be input, and may be formed with a valve, etc.

[0061] Of course, the stirring device (200) is not limited to being formed with the configuration described above, but can be formed by means capable of various stirring operations.

[0063] (Example 4-1) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein in Example 1-1, the flowerpot body forming step (S300) includes a flowerpot body thickness control step (S310) for controlling the thickness of the flowerpot body (100).

[0064] (Example 4-2) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein in Example 4-1, the flowerpot body thickness control step (S310) includes a root-dispersing area formation step (S311) for forming a root-dispersing area (101) with reduced thickness in a selected area among the walls of the flowerpot body (100).

[0065] (Example 4-3) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub. In Example 4-2, the root-dispersing region forming step (S311) forms a root-dispersing region reinforcing part (102) which is a material that melts over time upon contact with moisture, formed in the root-dispersing region (101).

[0066] (Example 4-4) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein in Example 4-3, the root-dispersing area reinforcing part (102) is formed of a starch material.

[0067] (Examples 4-5) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub. In Example 4-1, the flowerpot body thickness control step (S310) includes an upward thickness reduction step (S312) in which the wall surface of the flowerpot body (100) is formed in a shape in which the thickness decreases as it proceeds upward.

[0068] Referring to FIGS. 6 and FIGS. 7, the flowerpot body forming step (S300) includes a flowerpot body thickness control step (S310) that controls the thickness of the flowerpot body (100).

[0069] The flowerpot body thickness control step (S310) includes a root spreading area formation step (S311) for forming a root spreading area (101) with reduced thickness in a selected area among the walls of the flowerpot body (100). By forming a root spreading area (101) with reduced thickness among the walls of the flowerpot body (100), the present invention allows the roots of a plant to easily penetrate the flowerpot body (100) when the plant is planted whole in a large pot for repotting or planted in the ground.

[0070] At this time, the root eruption area formation step (S311) can form a root eruption area reinforcement part (102) made of a material that melts over time due to contact with moisture, formed in the root eruption area (101). That is, since the thickness of the root eruption area (101) formed by the root eruption area formation step (S311) is reduced, it may cause a decrease in the strength of the flowerpot body (100). Accordingly, the strength of the flowerpot body (100) is supplemented by forming a root eruption area reinforcement part (102) in the root eruption area (101), and the root eruption can be facilitated by melting away over time due to contact with moisture. To this end, the root eruption area reinforcement part (102) may be formed of a starch material.

[0071] In addition, the flowerpot body thickness control step (S310) may include an upward direction thickness reduction step (S312) in which the wall surface of the flowerpot body (100) is formed with a shape in which the thickness decreases as it proceeds upward. The upward direction thickness reduction step (S312) can reduce manufacturing costs by controlling the shape of the wall surface of the flowerpot body (100).

[0073] (Example 5-1) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein in Example 1-1, the flowerpot body forming step (S300) includes an entrance part strength increasing step (S320) that increases the strength of the entrance part (110) open in the flowerpot body (100).

[0074] (Example 5-2) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein in Example 5-1, the inlet strength increase step (S320) includes an inlet thickness increase step (S321) formed in a shape in which the thickness of the inlet (110) is increased.

[0075] (Example 5-3) The present invention relates to a method for manufacturing a biodegradable flowerpot using grub excrement, wherein in Example 5-1, the entrance strength enhancement step (S320) includes an entrance bending step (S322) in which the entrance (110) is bent outward to form a connection to the outer surface of the flowerpot body (100).

[0076] (Example 5-4) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub. In Example 5-1, the inlet strength enhancement step (S320) includes an inlet reinforcement member insertion step (S323) formed so that a reinforcement member (103) is inserted into the inlet (110).

[0077] (Example 5-5) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein in Example 5-4, the reinforcing member (103) is formed of a material having greater strength than the flowerpot body (100).

[0078] Referring to FIGS. 8 and 9, the flowerpot body forming step (S300) of the present invention includes an inlet strength increasing step (S320) that increases the strength of the inlet part (110) open in the flowerpot body (100).

[0079] That is, by increasing the strength of the opening (110) of the flowerpot body (100) with the top open, the ease of storage and use can be increased.

[0080] The entrance section strength increase step (S320) includes an entrance section thickness increase step (S321) formed in a shape that increases the thickness of the entrance section (110). By forming the entrance section thickness increase step (S321) in a shape that increases the thickness of the entrance section (110), the strength at the entrance section (110) can be increased.

[0081] Additionally, the entrance portion strength increase step (S320) includes an entrance portion bending step (S322) formed by bending the entrance portion (110) outwardly so that it is joined to the outer surface of the flowerpot body (100). By forming the entrance portion bending step (S322) by bending the entrance portion (110) outwardly so that it is joined to the outer surface of the flowerpot body (100), the thickness can be increased by bending, and the strength can be increased to increase the strength at the entrance portion (110).

[0082] In addition, the entrance section strength increase step (S320) includes an entrance section reinforcing member insertion step (S323) in which a reinforcing member (103) is inserted into the entrance section (110). The entrance section reinforcing member insertion step (S323) can increase the strength at the entrance section (110) by inserting a reinforcing member (103), which is made of a material with greater strength than the flowerpot body (100), into the entrance section (110). Of course, it is also preferable that the reinforcing member (103) be formed of a biodegradable material.

[0084] (Example 6-1) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub. In Example 1-1, the flowerpot body forming step (S300) includes a drainage hole forming step (S330) for forming a drainage hole (120) in the flowerpot body (100).

[0085] (Example 6-2) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub. In Example 6-1, the drainage hole forming step (S330) includes a melting drainage hole forming step (S331) in which the drainage hole is formed with a material that melts over time upon contact with moisture.

[0086] (Example 6-3) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein in Example 6-2, the melting drainage hole forming step (S331) forms the drainage hole with starch.

[0087] (Example 6-4) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub. In Example 6-1, the drainage hole forming step (S330) includes a drainage hole cover plate forming step (S332) of forming a drainage hole cover plate (104) made of a material that melts over time upon contact with moisture on the upper part of the drainage hole (120).

[0088] (Example 6-5) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein in Example 6-4, the drainage hole cover plate forming step (S332) forms the drainage hole cover plate (104) with starch.

[0089] Referring to FIGS. 10 and 11, the step of forming a flowerpot body (S300) of the present invention includes a step of forming a drainage hole (S330) in which a drainage hole (120) is formed in the flowerpot body (100). The step of forming a drainage hole (S330) forms a drainage hole (120) that penetrates the lower surface of the flowerpot body (100) to smoothly drain moisture, thereby preventing the plant from rotting due to moisture.

[0090] At this time, the drainage hole formation step (S330) includes a melting drainage hole formation step (S331) in which the drainage hole (120) is formed with a material that melts over time due to contact with moisture. The melting drainage hole formation step (S331) forms the drainage hole (120) with starch to prevent soil inside the flowerpot body (100) from escaping to the outside and maintain the strength of the flowerpot body (100). Additionally, by forming the drainage hole (120) with a material that melts over time due to contact with moisture after a plant is planted, an appropriate amount of moisture can be discharged from the flowerpot body (100) to the outside.

[0091] In addition, the drainage hole formation step (S330) includes a drainage hole cover plate formation step (S332) in which a drainage hole cover plate (104) made of a material that melts over time upon contact with moisture is formed on the upper part of the drainage hole (120). The drainage hole cover plate formation step (S332) forms a drainage hole cover plate (104) made of a starch material on the upper part of the drainage hole (120) to prevent soil inside the flowerpot body (100) from escaping to the outside, and can also compensate to some extent for the decrease in strength of the flowerpot body (100) caused by the formation of the drainage hole (120). Furthermore, after a plant is planted, by forming a drainage hole cover plate (104) made of a material that melts over time upon contact with moisture, an appropriate amount of moisture can be discharged to the outside of the flowerpot body (100) through the drainage hole (120).

[0093] (Example 7-1) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein in Example 6-1, the flowerpot body forming step (S300) includes a flowerpot body connecting part forming step (340) that forms a flowerpot body connecting part (105) to which the lower part of the flowerpot body is connected.

[0094] (Example 7-2) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein in Example 7-1, the flowerpot body connecting part (105) is formed of a material that melts over time upon contact with moisture.

[0095] (Example 7-3) The present invention relates to a method for manufacturing a biodegradable flowerpot using the excrement of a grub, wherein in Example 7-2, the flowerpot body connecting part (105) is formed of starch.

[0096] Referring to FIG. 12, the flowerpot body forming step of the present invention includes a flowerpot body connecting part forming step (S340) for forming a flowerpot body connecting part (105) to which the lower part of the flowerpot body (100) is connected. The flowerpot body connecting part forming step (S340) can support the strength of the flowerpot body (100) by forming a flowerpot body connecting part (105) to which the lower part of the flowerpot body (100) is connected. In addition, it can prevent soil inside the flowerpot body (100) from escaping through the drainage hole (120).

[0097] At this time, the step of forming the flowerpot body joint (S340) is to form the flowerpot body joint (105) with starch, a material that melts over time due to contact with moisture, so that after the plant is planted, it disappears over time due to contact with moisture, allowing an appropriate amount of moisture to be discharged through the drainage hole (120).

[0099] (Example 8-1) The present invention includes a biodegradable flowerpot made using the vermicompost of a grub, prepared using a method for preparing a biodegradable flowerpot using the vermicompost of a grub. Explanation of the symbols

[0101] S100: Vermicompost preparation step S110: Vermicompost mixing step S120: Vermicompost moisture removal step S130: Powder vermicompost formation step S131: Vermicompost classification step S132: Vermicompost grinding step S200: Slurry vermicompost formation step S210: Powder vermicompost input step S220: Additive input step S230: Slurry vermicompost stirring step S300: Flowerpot body formation step S310: Flowerpot body thickness control step S311: Root divergence zone formation stage S312: Upward thickness reduction stage S320: Inlet strength increase stage S321: Inlet thickness increase stage S322: Entrance bending stage S323: Entrance reinforcing member insertion stage S330: Drainage hole formation step S331: Formation step of melting drain hole S332: Formation step of drain hole cover plate S340: Step of forming the flowerpot body joint S400: Flowerpot body completion stage S410: Flowerpot body drying temperature control step S420: Flowerpot body drying pressure control step 100 : Flowerpot body 101 : Root divergence area 102 : Root divergence area reinforcement section 103 : Reinforcement member 104 : Drainage hole cover plate 105 : Flowerpot body connection part 110 : Inlet section 120 : Drainage hole

Claims

Claim 1 The method comprises: a vermicompost preparation step (S100) for preparing vermicompost; a slurry vermicompost formation step (S200) for forming a slurry-type slurry vermicompost by mixing additives into the vermicompost; and a flowerpot body formation step (S300) for forming a flowerpot body (100) using the slurry vermicompost; wherein the vermicompost preparation step (S100) includes a vermicompost stirring step (S110) for stirring the vermicompost, a vermicompost moisture removal step (S120) for removing moisture from the vermicompost stirred in the stirring step (S110), and a powder vermicompost formation step (S130) for forming a powder-type powder vermicompost; wherein the powder vermicompost formation step (S130) includes a powder vermicompost classification step (S131) ​​for classifying powder vermicompost having a selected size and a powder vermicompost crushing step (S132) for crushing the powder vermicompost to have a selected size, and the flowerpot body The forming step (S300) includes a flowerpot body thickness control step (S310) for controlling the thickness of the flowerpot body (100) and an entrance part strength increase step (S320) for increasing the strength of an entrance part (110) open in the flowerpot body (100); the flowerpot body thickness control step (S310) includes a root radiating area formation step (S311) for forming a root radiating area (101) with reduced thickness in a selected area among the walls of the flowerpot body (100), and an upward direction thickness reduction step (S312) for forming the wall of the flowerpot body (100) in a shape with reduced thickness as it proceeds upward; the root radiating area formation step (S311) forms a root radiating area reinforcement part (102) which is formed in the root radiating area (101) and is a material that melts over time due to contact with moisture; and the entrance part strength increase step (S320) is the A method for manufacturing a biodegradable flowerpot using grub excrement, comprising: an entrance portion thickness increase step (S321) in which the thickness of the entrance portion (110) is increased; an entrance portion bending step (S322) in which the entrance portion (110) is bent outward so as to be coupled to the outer surface of the flowerpot body (100); and an entrance portion reinforcing member insertion step (S323) in which a reinforcing member (103) is inserted into the entrance portion (110). Claim 2 delete Claim 3 A method for manufacturing a biodegradable flowerpot using grub worm castings according to claim 1, wherein the slurry castings forming step (S200) comprises a powder castings input step (S210) for inputting a selected amount of powder castings, an additive input step (S220) for inputting a selected amount of additives, and a slurry castings stirring step (S230) for stirring the powder castings and additives. Claim 4 delete Claim 5 delete Claim 6 In claim 1, the method for manufacturing a biodegradable flowerpot using grub excrement includes a drainage hole forming step (S330) in which the flowerpot body forming step (S300) forms a drainage hole (120) in the flowerpot body (100). Claim 7 In claim 6, the method for manufacturing a biodegradable flowerpot using grub excrement includes a flowerpot body forming step (S300) that forms a flowerpot body connecting part (105) to which the lower part of the flowerpot body is connected, and a flowerpot body connecting part forming step (S340). Claim 8 A flowerpot produced using a method for producing a biodegradable flowerpot using grub excrement as described in any one of claims 1, 3, 6, and 7.

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