KR20230140013A - Breeding system for black soldier fly larva - Google Patents

Abstract

The present invention relates to a breeding system for black soldier flies, etc. According to the present invention, the feed provided for rearing black soldier fly larvae, for example, organic waste, is evenly mixed in the left and right or up and down directions within the breeding module, so that the black soldier fly larvae consume only part of the feed. Instead of doing so, it is possible to consume the whole food evenly and decompose it. Accordingly, the decomposition efficiency of organic waste can be maximized. In addition, since multiple breeding modules can be mixed with one mixer unit, the installation cost is low and installation is possible even in a small space, providing excellent space utilization. In addition, by using wood chips for mulching based on shredded wood rather than sawdust, which was previously used to control humidity, during the breeding process, the escape of black soldier fly larvae is effectively prevented, economic feasibility is secured through wood chip recycling, and it can be used as fertilizer. You can obtain high-quality fecal soil compost. Furthermore, by providing a rearing device equipped with a plurality of rearing modules and a larva rearing system equipped with a plurality of the rearing devices arranged radially around a sorter or processing device, mass rearing of black soldier fly larvae and mass decomposition of organic waste are possible. It's easy.

Description

Black soldier fly larvae breeding system {BREEDING SYSTEM FOR BLACK SOLDIER FLY LARVA}

The present invention relates to a larval rearing system for black soldier flies. In detail, the present invention relates to a black soldier fly larvae rearing system that classifies and rears black soldier flies by a certain standard date through an automated system and separates them from the external environment, making it easy to manage odor and not be restricted by installation location.

Today, humans are generating various wastes in the course of their lives, and environmental pollution is being reduced by applying various waste treatment technologies and pollution prevention technologies to treat these wastes. However, existing waste treatment technologies and pollution prevention technologies are reducing environmental pollution. There are many cases that cannot be resolved, and in many cases, a sufficient environment to accommodate waste is not provided, so problems related to waste are becoming more and more serious as time passes.

For example, organic waste such as food waste from homes and restaurants, organic waste from industrial sites, and human waste from livestock farms are often discharged directly into the soil or rivers without a purification process, causing serious problems for the environment. It can result. Meanwhile, organic waste is sometimes recycled in the form of feed or compost, but in most cases, it has been disposed of in the form of landfill or incineration. Since 2005, direct landfill has been banned, so it is converted into feed or compost, or mostly incinerated. come.

One of the ways to dispose of such organic waste is to use black soldier flies. Black soldier flies are representative environmental purification insects and only feed during the larval stage, but do not feed during the adult stage. They move to forests to avoid people, and places where organic waste such as livestock sheds, household waste, and food waste are stored in the open air. It is a species that lives in

In particular, black soldier flies have a voracious appetite during their larval stage and eat and decompose food waste and livestock waste. The period for black soldier flies to become adults is about 37 to 41 days, of which the larval period of decomposing organic waste is about 14 days. If 10 kg of food waste is supplied to 5,000 black soldier fly larvae, the food waste is It is transformed into high-quality compost with a volume reduction of 58% and a weight reduction of 30%.

Meanwhile, a 'continuous organic waste treatment device using black soldier fly larvae' (Korean Patent No. 10-1003088), which is designed to treat food waste using black soldier fly larvae, has been proposed. Using this conventional organic waste treatment device has the advantage of being able to dispose of food waste in an environmentally friendly manner because a large number of black soldier fly larvae eat and decompose food waste. However, conventional organic waste treatment devices are manufactured with a structure that simply supplies food waste to black soldier fly larvae, and it is difficult to continuously decompose organic waste while raising and managing numerous black soldier fly larvae through an automated process. Since most of the processes are done manually, it is difficult to raise and manage black soldier fly larvae, and the efficiency of decomposing organic waste is significantly low.

Patent Document 1: Republic of Korea Patent Publication No. 10-2012-0097205 (2012.09.03.) Patent Document 2: Republic of Korea Patent No. 10-1443736 (2014.09.29.) Patent Document 3: Republic of Korea Patent No. 10-2026974 (2019.10.02.)

The technical task of the present invention is to provide an automated black soldier fly larvae rearing system that can maximize the efficiency of organic waste decomposition while effectively raising black soldier fly larvae that decompose organic waste by utilizing space more efficiently.

In addition, the technical problem of the present invention is to effectively prevent the escape of black soldier fly larvae by using wood chips for shredded wood-based mulching rather than sawdust, which was conventionally used for humidity control, in the process of rearing black soldier fly larvae, and to achieve economic efficiency through wood chip recycling. Meanwhile, it provides an automated black soldier fly larvae rearing system that can obtain high-quality fecal soil compost that can be used as fertilizer.

According to one aspect of the present invention, one or more breeding modules whose upper surface is open to form a space inside to accommodate larvae in feed, wood chips, and black soldier flies; a mixer unit provided adjacent to the breeding module to mix feed contained within the breeding module; And a plurality of breeding devices for dongae, etc., including a housing 10 that accommodates the breeding module and the mixer unit inside, and is provided with a sealed interior space to maintain odor and temperature and humidity, and in which an entrance and a recovery port are formed, are arranged radially. However, a larvae rearing system for black soldier flies is provided in which a sorter is provided in the center of the structure in which the plurality of devices are radially arranged.

Meanwhile, the wood chips may be wood chips for mulching derived from shredded wood.

Meanwhile, the housing may be further equipped with an air conditioning unit that manages internal odor or temperature/humidity.

Meanwhile, the air conditioning unit may additionally include a device that removes bad odors using effective microorganisms (EM).

On the other hand, the mixer unit includes a shaft portion located above the breeding module and located on the same line as the longitudinal direction of the breeding module; a power unit that rotates the shaft portion; and one or more mixer blades provided on the shaft and rotating together to mix the feed contained within the breeding module.

Meanwhile, the device includes a crane unit that is coupled to the mixer unit to adjust the height of the mixer unit; and a shaft unit that moves the mixer unit coupled to the crane unit in a horizontal direction.

On the other hand, the device includes a crane unit that is connected to the breeding module and adjusts the height of the breeding module; and a shaft portion that moves the breeding module coupled to the crane portion in a horizontal direction.

Meanwhile, the one or more breeding modules are divided by a predetermined reference date, and larvae can be input or recovered from feed, wood chips, and black soldier flies in the housing according to the reference date.

Meanwhile, the one or more breeding modules may be arranged in a row or radially and input, mixed, or recovered according to the reference date.

Meanwhile, the rearing device for a plurality of black soldier flies arranged radially may be introduced, mixed, or recovered according to the above-mentioned reference date.

According to the present invention, the feed provided for rearing black soldier fly larvae, for example, organic waste, is mixed evenly in the left and right or up and down directions within the breeding module, so that the black soldier fly larvae can evenly consume and decompose the entire feed rather than only part of it. There will be. Accordingly, the decomposition efficiency of organic waste can be maximized.

In addition, since multiple breeding modules can be mixed with one mixer unit, the installation cost is low and installation is possible even in a small space, providing excellent space utilization.

In addition, by using wood chips for mulching based on shredded wood rather than sawdust, which was previously used to control humidity, during the breeding process, the escape of black soldier fly larvae is effectively prevented, economic feasibility is secured through wood chip recycling, and it can be used as fertilizer. You can obtain high-quality fecal soil compost.

Furthermore, according to the breeding system according to the present invention, by providing a rearing device equipped with a plurality of rearing modules and a larva rearing system equipped with a plurality of the rearing devices arranged radially around a sorter or processing device, larvae such as black soldier flies are provided. It is easy to mass-rear and decompose organic waste.

Figure 1 is a diagram schematically showing a black soldier fly larvae rearing system according to a first embodiment of the present invention, where a plurality of rearing devices are arranged radially around a sorter.
Figure 2 is a larval breeding system for black soldier flies according to a second embodiment of the present invention, schematically showing the rearing modules arranged in a row within the breeding device.
Figure 3 is a plan view schematically showing a larval breeding system for black soldier flies according to a third embodiment of the present invention, where breeding modules are radially arranged within the breeding device.
Figure 4 is a diagram showing the breeding module and mixer unit of the rearing device constituting the black soldier fly larvae rearing system according to the first to third embodiments of the present invention.
Figures 5 to 8 are diagrams schematically showing the operation of the crane unit and the shaft unit corresponding to a plurality of breeding modules of the breeding device constituting the black soldier fly larvae breeding system according to the first to third embodiments of the present invention.

Hereinafter, with reference to the attached drawings, embodiments of the present invention will be described in detail so that those skilled in the art can easily implement the present invention. However, the present invention may be implemented in various different forms and is not limited to the embodiments disclosed below. In addition, in order to clearly disclose the present invention in the drawings, parts not related to the present invention are omitted, and identical or similar symbols in the drawings indicate identical or similar components.

The purpose and effect of the present invention can be naturally understood or become clearer through the following description, and the purpose and effect of the present invention are not limited to the following description.

The purpose, features and advantages of the present invention will become clearer through the following detailed description. Additionally, in describing the present invention, if it is determined that a detailed description of known techniques related to the present invention may unnecessarily obscure the gist of the present invention, the detailed description will be omitted. Hereinafter, embodiments according to the present invention will be described in detail with reference to the attached drawings.

Referring to Figure 1, the black soldier fly rearing system 500 according to the first embodiment of the present invention has an open upper surface and a space inside which feed (1), wood chips (2), and black soldier fly larvae (3) are accommodated. One or more breeding modules (100) are formed; A mixer unit 200 provided adjacent to the breeding module 100 to mix the feed 1 contained within the breeding module 100; And Dongae et al., which includes a housing (10) that accommodates the breeding module and the mixer unit inside, has an internal space sealed to prevent odor and maintains temperature and humidity, and has an entrance (11) and a recovery port (12). A plurality of rearing devices 150 may be arranged radially, and a sorter 50 may be provided at the center of the structure in which the plurality of devices 150 are radially arranged.

Specifically, the breeding system may have a plurality of black soldier fly breeding devices 150 arranged radially around a sorting machine 50 and/or a processing room (not shown).

Meanwhile, referring to Figures 2 and 3, the upper surface of the black soldier fly rearing device 150 is opened to form a space inside which the feed (1), wood chips (2), and black soldier fly larvae (3) are accommodated. More than 100 breeding modules; A mixer unit 200 provided adjacent to the breeding module 100 to mix the feed 1 contained within the breeding module 100; And it may include a housing 10 that accommodates the breeding module and the mixer unit inside, is provided with an internal space sealed to maintain odor and temperature and humidity, and has an entrance 11 and a recovery port 12. . Meanwhile, the housing 10 may be further equipped with an air conditioning unit 20 that manages internal odor or temperature and humidity.

Here, the feed 1 may be organic waste, for example, food waste, livestock waste, etc.

Meanwhile, the wood chips (2) of the present invention are used to replace sawdust, which was conventionally used for humidity control when raising larvae of black soldier flies, etc., and the wood chips according to an embodiment of the present invention are mulching derived from shredded wood. It may be wood chips for mulching.

Specifically, sawdust, which was previously used for humidity control, is not only relatively expensive, but it is also difficult to reuse because the larvae of black soldier flies eat it along with organic waste and discharge it as feces, and when the larvae are separated after rearing, they are separated together with feces. There was a problem of low economic feasibility due to difficulty.

However, when using wood chips for mulching derived from shredded wood according to an embodiment of the present invention, unlike sawdust according to the prior art, larvae cannot feed on it and can be easily separated and recovered together with the larvae after rearing is completed, thereby providing a humidity control effect. This increases the feeding efficiency of larvae and ensures economic feasibility by enabling reuse. In addition, the amount of fecal soil excreted by larvae is reduced to about 1/5 to 1/6 compared to when sawdust is used, and the quality of fecal soil is also improved because sawdust is not included in the fecal soil.

Furthermore, due to the nature of black soldier fly larvae that hate light and avoid light, the larvae burrow into the space between wood chips, so it is also possible to prevent black soldier fly larvae from escaping outside the breeding module.

On the other hand, the wood chips may be mulching wood chips derived from shredded wood, and if high-strength compression molded fuel wood chips are used instead of the mulching wood chips, the humidity control effect and the effect of preventing larval escape from black soldier flies may be reduced. there is a problem.

The input amount of the wood chips can be adjusted by considering the amount of larvae and feed for black soldier flies and the moisture content of the feed.

First, the breeding module 100 may be provided with an open upper surface so that feed (1), wood chips (2), or black soldier fly (3) larvae can be smoothly introduced. For example, the breeding module 100 may be provided in the shape of a semicircular pillar with an open upper surface. Specifically, when the mixer blade 230 of the mixer unit 200, which will be described later, rotates around the shaft unit 210, the breeding module (100) It may be in a form that allows effective mixing of the accommodated feed (1) located inside. However, it is not necessarily limited to a semicircular pillar, and the direction of the shaft portion 210 of the mixer unit 200, which will be described later, may be oriented differently and may be provided in the form of a box of various shapes such as a hemispherical shape or a semi-elliptical shape.

Meanwhile, the breeding module 100 may be further provided with a fan unit. The fan unit is a component that blows wind in the direction of the inner peripheral surface of the breeding module, removing moisture from the ends of each corner or arc-shaped end of the breeding module (100) and preventing black soldier fly larvae (3) from escaping from the breeding module (100). It can be prevented. In detail, black soldier fly larvae (3) have the characteristic of being able to easily climb up moist ground. At this time, the fan unit blows wind to remove moisture from the ends of each corner or the arc-shaped end of the breeding module 100, and at the same time applies external force to the larvae of the black soldier flies that have crawled up, so that the larvae (3) of the black soldier flies crawl out of the breeding module (100). This prevents it from climbing up the slope of the inner circumference and leaving the breeding module.

Meanwhile, the breeding module 100 is horizontal in the direction of the inner circumferential surface of the breeding module at each corner end or arc-shaped end of the breeding module to prevent black soldier larvae (3) from climbing up the slope of the inner circumferential surface and escaping from the breeding module. It may further include protruding wings. For example, the wings are located at the ends of each corner of the rearing module, which is provided in a plate-shaped semicircle shape, or at the ends of the arc shape, and are provided horizontally in the direction of the inner circumferential surface, creating an inclination angle that prevents black soldier fly larvae (3) from climbing upward. , prevents the escape of black soldier fly larvae (3).

The mixer unit 200 mixes the feed 1 stored inside the rearing module 100 in the left and right or up and down directions so that the feed 1 is evenly mixed, so that black soldier fly larvae do not consume only part of the feed, but evenly consume the entire feed. It is structured so that it can be ingested and decomposed. The mixer unit 200 includes a shaft unit 210, a power unit 220, and a mixer blade 230.

The shaft portion 210 is provided in a rod shape and is located on the upper side of the breeding module 100 and is located on the same line as the longitudinal direction of the breeding module 100. In detail, the shaft portion 210 is located at the same level as or above the midpoint of the arc of the semi-cylindrical pillar of the breeding module 100. Additionally, the shaft portion 210 has a longitudinal direction on the same line as the longitudinal direction of the semicircular pillar. In addition, the shaft unit 210 is connected to the power unit 220, and the power unit 220 may be operated by the application of external power, and may rotate the shaft unit 210 in one direction.

One or more mixer blades 230 are provided on the shaft portion 210 and mix the feed 1 contained within the breeding module 100 by rotating with the rotational movement of the shaft portion 210. A plurality of mixer blades 230 may be provided on the shaft portion 210, and may be formed radially at multiple angles on the outer peripheral surface of the shaft portion 210. Meanwhile, the mixer blades 230 are provided in the shape of a bar and are formed in a plurality radially from the shaft portion 210, and are formed at the ends in various shapes such as rotary, wing, or ribbon type to easily mix the feed 1. It may be. Meanwhile, the end of the mixer blade may be formed in a blunt shape to minimize damage to black soldier fly larvae during rotation.

Additionally, referring to Figures 2 and 3, the larval breeding system for black soldier flies according to the second embodiment of the present invention may be provided with a plurality of breeding modules 100 (100a, 100b), and a breeding module provided with a plurality of breeding modules 100. A crane unit 300 and a shaft unit 400 may be further provided to sequentially mix 100 with one mixer unit 200. Meanwhile, when a plurality of breeding modules 100 are provided, they may be arranged in a row as shown in FIG. 2 or in a radial structure as shown in FIG. 3, and the description will be based on the fact that one mixer unit 200 is provided.

Referring to Figures 4 to 8, the crane unit 300 is fastened to the mixer unit 200 or the breeding module 100 to adjust the height of the mixer unit 200 or the breeding module 100. Additionally, the shaft unit 400 is connected to the crane unit 300 and moves the crane unit 300 in the horizontal direction. The shaft unit 400 may include a bar-shaped guide line and a guide moving part that moves along it, and an external power source (motor), etc. may be used when moving. The horizontal direction in which the shaft portion 400 is formed is preferably formed in the same direction as the direction in which the breeding module 100 is arranged. That is, the crane unit 300 changes the height of the mixer unit 200 or the breeding module 100 to separate the mixer unit 200 and the breeding module 100a from each other, and separates the mixer unit 200 or the breeding module 100 from each other. The module 100a allows the mixer unit 200 to be positioned with another breeding module 100b by moving the crane through the shaft unit 400.

In detail, when a plurality of breeding modules 100 (100a, 100b) are provided, the mixer unit 200 and the crane unit 300 are fastened to increase the height of the mixer unit 200 to separate the mixer unit from the breeding module 100a. 200) is removed. Next, the crane moves the crane along the shaft part 400 in the direction where the other breeding module (100b) is located, and then the crane moves the crane unit 200 so that the mixer unit 200 is located within the breeding module 100b. Mix the other breeding modules (100b) by lowering the height again.

As another example, when the breeding module (100a) is connected to a crane, the crane lowers the height of the breeding module (100a) to separate it from the mixer unit 200, then places the breeding module (100a) down at a predetermined location, and then again. The crane is fastened to another breeding module (100b) and then placed into the mixer unit (200) through the shaft unit (400).

Returning again, referring to FIGS. 1 to 3, the black soldier fly larvae breeding system according to the first embodiment of the present invention is provided with a plurality of breeding devices in which a breeding module and a mixer unit are accommodated in a housing, and the devices are centered around a sorter. It is a system having a radially arranged structure, and the black soldier fly larvae rearing system according to the second embodiment of the present invention is an additional configuration to the system according to the first embodiment, in which a plurality of breeding modules are arranged in a row in the housing, and a third The black soldier fly larvae breeding system according to the embodiment is an additional configuration to the system according to the first embodiment, and a plurality of breeding modules are arranged radially in the housing.

Specifically, the black soldier fly larvae breeding system according to the second embodiment includes a housing 10 in which a plurality of the breeding modules 100 are arranged, and an entrance 11 and a recovery port 12 are formed. do. Here, the housing 10 may be in the form of a plastic or steel box, for example, or may be a building.

In detail, inside the housing 10, a plurality of breeding modules 100 are accommodated, and within the breeding module 100, the larvae 3 of the black soldier fly decompose or consume the feed 1. It is equipped with a sealed structure to prevent odors from leaking out. Additionally, the sealed environment can prevent temperature and humidity changes from the external environment.

The housing 10 may be further equipped with an air conditioning unit 20 capable of managing temperature, humidity, or odor. The air conditioning unit 20 is an air conditioning system that can manage ventilation, temperature, or humidity. Meanwhile, the air conditioning unit may additionally include a device that removes bad odors using effective microorganisms (EM).

Meanwhile, the housing 10 is provided with an entrance 11 and a recovery port 12. Larvae (3), wood chips (2), or feed (1) are fed into the breeding module (100) or black soldier flies accommodated in the breeding module (100) into the housing (10) through the entrance (11) and recovery port (12). It can be put in or recovered. At this time, input and recovery can be done through a door, or can be automatically supplied or retrieved through a pipe or other pipe. In this case, a vacuum pump can be used.

As shown in Figures 2 and 3, a plurality of breeding modules 100 (100a to 100g) are provided, and the breeding modules 100 may be divided (100a to 100g) by a predetermined reference date. Assuming that the growth process of black soldier larvae (3) is about a week and that the predetermined standard date is 1 day, 7 breeding modules (100) (100a to 100g) inside the housing (10) will be provided. You can. That is, larvae (3), wood chips (2), and feed (1) are added to the black soldier flies of the breeding module (100a) on a daily basis, and on the second day, larvae (3) are added to the black soldier flies of the other breeding module (100b). Add wood chips (2) and feed (1). If equipped as above, more efficient management can be achieved by managing the date on which the larvae (3) decompose or consume the feed (1), and after 7 days based on the input date, the breeding module (100) or the breeding module ( 100), it is easy to maintain and manage because it collects black soldier larvae (3), wood chips (2), feces, and decomposed organic waste housed in the tank.

At this time, the breeding modules 100 may be arranged in a row (100a to 100g) as shown in FIG. 2, or may be arranged radially (100a to 100g) as shown in FIG. 3. In detail, a plurality of breeding modules 100 are provided and one mixer unit 200 is provided, and the mixer unit 200 is provided for each breeding module 100 by a crane unit 300 and a shaft unit 400. Can be moved sequentially. When the breeding modules 100 are arranged in a row, mixing is performed sequentially from the front through the mixer unit 200, and when the breeding modules 100 are arranged radially, mixing is performed sequentially clockwise or counterclockwise through the mixer unit ( Mixing can be performed through 200). When the breeding modules 100 are arranged in a row, it is preferable that the shaft unit 400 is provided in the shape of a straight bar to move the crane unit 300 in response to the breeding modules 100 arranged in a row. When the breeding module 100 is arranged radially, the shaft portion 400 is provided in a circular shape to correspond to the radially unfolded breeding module 100. In this case, the crane unit 300 connected to the shaft unit 400 moves circularly along the shaft unit 400, thereby sequentially mixing the radially arranged breeding modules 100.

In the case of the above configuration, since the breeding module 100 is managed according to the input date, the growth state of black soldier fly larvae (3) housed in the breeding module 100 and the state of organic waste decomposition can be seen at a glance, and the black soldier fly larvae (3) housed in the breeding module 100 can be checked at a glance. By analyzing the feed (1) intake of the larvae (3), the population of feed (1) and black soldier fly larvae (3) can be efficiently managed by taking into account the intake of feed (1) or the amount of decomposition of organic waste. In addition, since a plurality of breeding modules 100 can be mixed with one mixer unit 200, which has a relatively high installation cost, the initial installation cost is low.

Furthermore, the black soldier fly larvae breeding system according to the first embodiment as shown in FIG. 1 is equipped with a plurality of black soldier fly breeding devices (150a to 150g), each of which is divided by a predetermined reference date, according to the above-mentioned system. The breeding module management system by input date of Example 2 and Example 3 has been expanded to the unit of breeding equipment. Therefore, if the input of larvae (3), wood chips (2), and feed (1) to black soldier flies according to the date is expanded to the unit of breeding equipment, it is advantageous to raise larvae (3) to black soldier flies in large quantities, while also decomposing large quantities of organic waste. , can be processed.

The preferred embodiments of the present invention described above have been disclosed for illustrative purposes, and those skilled in the art will be able to make various modifications, changes, and additions within the spirit and scope of the present invention, and such modifications, changes, and additions will be possible. should be regarded as falling within the scope of the above patent claims.

Those of ordinary skill in the technical field to which the present invention pertains can make various substitutions, modifications and changes without departing from the technical spirit of the present invention. Therefore, the present invention is limited to the above-described embodiments and the accompanying drawings. It is not limited by

In the above-described exemplary system, the methods are described on a flowchart basis as a series of steps or blocks; however, the invention is not limited to the order of the steps, and some steps may occur simultaneously or in a different order than other steps as described above. You can. Additionally, those skilled in the art will understand that the steps shown in the flowchart are not exclusive and that other steps may be included or one or more steps in the flowchart may be deleted without affecting the scope of the present invention.

1: Feed (organic waste) 2: Wood chips
3: Black soldier fly larvae
10: housing 11: entrance
12: recovery port 20: air conditioning unit
50: Sorter 100: Breeding module
150: Breeding device 200: Mixer unit
210: shaft 220: power unit
230: mixer blade 300: crane part
400: Shaft part 500: Breeding system

Claims (10)

One or more breeding modules (100) whose upper surface is open to form a space inside to accommodate feed (1), wood chips (2), and black soldier fly larvae (3); A mixer unit 200 provided adjacent to the breeding module 100 to mix the feed 1 contained within the breeding module 100; And Dongae et al., which includes a housing (10) that accommodates the breeding module and the mixer unit inside, has an internal space sealed to prevent odor and maintains temperature and humidity, and has an entrance (11) and a recovery port (12). A plurality of rearing devices (150) are arranged radially,
A larvae rearing system for black soldier flies, in which a sorter (50) is provided in the center of the structure in which the plurality of rearing devices (150) are radially arranged.
According to claim 1,
The woodchip is a woodchip for mulching derived from shredded wood, and is a larvae rearing system for Dongae, etc.
According to claim 1,
The housing (10) is further provided with an air conditioning unit (20) that manages internal odor or temperature and humidity.
According to claim 3,
The air conditioning unit is a larval breeding system for black soldier flies, etc., wherein the air conditioning unit further includes a device for removing bad odors using effective microorganisms (EM).
According to claim 1,
The mixer unit 200,
A shaft portion 210 located above the breeding module 100 and located on the same line as the longitudinal direction of the breeding module 100;
A power unit 220 that rotates the shaft unit 210; and
A larvae rearing system for black soldier flies, including one or more mixer blades (230) provided on the shaft (210) and rotating together to mix the feed (1) accommodated inside the breeding module (100).
According to claim 1,
A crane unit 300 coupled to the mixer unit 200 to adjust the height of the mixer unit 200; and
A larvae rearing system for Dongae et al., comprising a shaft unit 400 that moves the mixer unit 200 coupled to the crane unit 300 in a horizontal direction.
According to claim 1,
A crane unit 300 connected to the breeding module 100 to adjust the height of the breeding module 100; and
A larval breeding system for black soldier flies, comprising: a shaft unit 400 that moves the breeding module 100 coupled to the crane unit 300 in a horizontal direction.
According to claim 1,
The one or more breeding modules 100 are divided by predetermined reference dates,
A black soldier fly larvae rearing system characterized in that feed (1), wood chips (2), and black soldier fly larvae (3) are input or recovered into the housing (10) according to the reference date.
According to claim 8,
The one or more breeding modules (100) are arranged in a row or radially and are input, mixed or recovered according to the reference date.
According to claim 1,
A black soldier fly larvae rearing system in which the plurality of radially arranged black soldier fly rearing devices (150) are input, mixed, or recovered according to the reference date.