WO2012128428A1

WO2012128428A1 - Fly larva breeding device

Info

Publication number: WO2012128428A1
Application number: PCT/KR2011/005344
Authority: WO
Inventors: 진병규
Original assignee: Chin Byeong-Gyu
Priority date: 2011-03-24
Filing date: 2011-07-20
Publication date: 2012-09-27
Also published as: KR101044636B1; CN102958358B; CN102958358A

Abstract

The present invention relates to a fly larva breeding device. In the fly larva breeding device, a breeding case is divided into a plurality of parts so that larvae are grown for each stage. Thus, portions of completely grown larvae are picked up, and larvae which are not picked up evolve into flies and then escape into a fly habitat disposed in an upper portion of the breeding case. Thus, the flies spawn in the breeding case to repeatedly perform the breeding circulation process, thereby automatically breeding larvae. For this, the fly larva breeding device according to the present invention includes: a fly habitat, a larva breeding case installed in the fly habitat, and a cover rotatably disposed on an upper portion of the larva breeding case.

Description

Fly caterpillar

The present invention relates to a fly larvae breeding apparatus, and more specifically, to form a plurality of breeding chambers to grow larvae step by step and at the same time to collect a part of the larvae complete growth and development, the larvae not collected by fables The present invention relates to a fly larvae rearing device which automatically breeds larvae by repeating a circulating process of spawning in the rearing room while escaping to a fly habitat provided in an upper part of a breeding room.

In general, fly larvae, that is, maggots are made of a high protein is often used as a feed, or a fishing bait.

Recently, when the wound is so thick that it is difficult to distinguish between dead and new flesh, maggots can be used as a treatment in modern medicine, where the maggots are placed in difficult-to-repair areas or in difficult-to-clean wounds to clean rotten areas.

As such, the facilities for mass production and dissemination of fly larvae widely used in various fields have been insufficient.

Therefore, Republic of Korea Patent Registration No. 10-0654253 "Paris breeding device" has been presented to solve the conventional problems.

That is, Patent Registration No. 10-0654253 is a caterpillar breeding box is fastened to the conveyor belt and moved one step per day, feeding the amount of food suitable for the larvae growth and growth stage fixed at the top, and various habitats for maintaining a suitable habitat environment It is configured to raise larvae by the control management of the breeding device.

However, the pre-registered patent has a problem that the efficiency of breeding, such as the increase in the amount of food feed due to the growth and development, the treatment of excrement due to the management of the larvae grow breeding box is driven.

That is, the rapid load increase of the equipment due to the rapid growth of the fly larvae growth must bear the increase, the stress of the larvae due to the operation of the fly breeding device increases, and the growth of the larvae is not directly connected. There was a problem in that the work efficiency, such as manually sorting the larvae and transporting them to the fowls.

Therefore, in the conventional fly breeding apparatus, the breeding box in which the fly caterpillar is inhabited by the conveyor belt is driven, so that the production of the caterpillar is not only relatively small compared to the size of the plant, but also a lot of equipment maintenance and repair costs are incurred. There was a problem that the economic efficiency and efficiency is low as a breeding facility that must continuously breed a large number of larvae in the space.

The present invention has been made in order to solve the above-mentioned problems, the object of the present invention is to fix the breeding room in which the larvae live so that the larvae can be grown and developed in a narrow space without being stressed and mass-produced.

In other words, by installing the larval breeding room and the flies larvae in the lower part of the interior and the flies that are cut off from the outside, the pupae that flies spawning, hatching and larvae growth in one space are allegorized as flies. Its purpose is to enable efficient continuous production of the best larvae by repeating the ecological cycle.

In addition, the caterpillar inhabiting the larvae are divided into a plurality, and the cover that covers the breeding room is equipped with a facility that provides a suitable habitat for each growth and development stage, thereby controlling and managing the optimal habitat environment for the larvae, The purpose of the flies is to raise flies larvae economically and efficiently without generating load on the fly larvae rearing device.

In addition, by forming a plurality of breeding rooms so that the larvae can be reared in stages, and by installing various equipment providing conditions suitable for the growth and development of the larvae on the cover that covers the upper part of the divided breeding room to economically rotate, The larvae can be bred, and the continuous cultivation can be done automatically to produce a large number of larvae.

In addition, a filter paper that drains smoothly to the bottom of the breeding room has a vacuum pump connected thereto, and a shower facility is installed in the upper ceiling to operate simultaneously in the breeding room where the larvae of the 4th to 6th day inhabit the same time before feeding. The purpose of this is to remove the foreign material, so that the larvae can be raised hygienically.

In addition, the shower sprayer mounted on the water supply pipe installed in the cover provided on the upper part of the 6th day breeding room uses the functions of general shower, high temperature spray, high temperature steam spray, etc., and the feeder mounted on the installed carrier is concentrated feed and The purpose of the present invention is to use the feed of the fly feeder and the spawning promoter together, and to install the larvae vacuum suction collector together with the carrier, thereby simplifying and simplifying the installation and making maintenance easier.

In addition, a fly fever is installed on the side of the breeding room, and a sixth day larvae that have completed growth are provided with a passageway and an electronic scale sensor to move to the fever, whereby an opening and closing door of the fever is operated by an electronic balance sensor to control the movement of the larvae. The purpose is to control the number of flies and larvae by automatically adjusting the number of flies.

On the other hand, various organic wastes such as livestock waste, fishery waste, food by-products, and food waste generated from livestock manure, slaughterhouses, etc. can be supplied to fly food, fly spawning mediators, and concentrated food for larvae to treat various organic wastes in large quantities. In addition, by utilizing the reared larvae as feed for livestock or protein feed for fish, the purpose is to prevent environmental pollution and to supply larvae of animal protein.

The present invention for achieving the above object is characterized by consisting of a fly habitat, a caterpillar kennel installed in the fly habitat, and a cover rotatably installed on the larval kennel.

Here, a plurality of wires are installed in the fly habitat, the wire is fixed to the wire, characterized in that the fly habitat chamber is provided with a first heating pipe is formed.

At this time, the chopstick is characterized in that the ribbon made of straw, paper or cloth.

Further, the Paris habitat is characterized in that a plurality of planks are installed.

In addition, the Paris habitat chamber is equipped with a first ventilator and an air purifier, a water supply facility is installed, a light is installed on the ceiling, characterized in that the first detection measuring sensor for sensing the temperature, humidity, brightness. .

In addition, a vacuum cleaner is further provided at an inner lower end of the fly chamber.

In addition, the larval kennel is characterized in that the kennel is divided into a plurality.

Here, the breeding room is provided with a second ventilator, it characterized in that the second sensor for sensing the temperature and humidity is provided.

Furthermore, the breeding chamber is formed with a caterpillar passage protruding outward, characterized in that the opening and closing door to control the passage is provided.

In addition, the cover is partitioned to form a partition corresponding to the breeding room of the caterpillar farm, any one of the partitions is characterized in that the opening is formed to open.

Here, the cover is characterized in that the mist spray member is installed in some of the partitioned partition.

In addition, the cover is characterized in that the water supply pipe equipped with a feeder and a shower is installed in a part of the remaining compartment in which the mist spray member is installed.

In addition, any one of the compartments in which the feeder and the water supply pipe are installed is characterized in that the vacuum suction unit is installed.

At this time, the compartment is provided with a second ventilator, it characterized in that the second detection sensor for sensing the temperature and humidity is provided.

In addition, the cover is characterized in that it is further provided with a locking member that is selectively locked / unlocked to the caterpillar kennel.

And, the bottom of each of the breeding room of the caterpillar farm is characterized in that the filter is further installed.

Here, the filter is provided with a support on the bottom of the breeding room, the filter is installed on the support, the suction box is provided on the lower portion of the support, the suction pipe is connected to the suction box, the suction pipe is vacuum It is characterized in that the pump is installed.

In addition, it is installed in the fly habitat of the fly habitat, characterized in that the fables are installed to be connected to the passage formed in the kennel of the caterpillar farm.

Here, the allegory is provided with an electronic balance sensor positioned at the end of the passage in the upper portion, the second heating pipe is installed inside, and the allegory chamber is provided with a temperature sensor.

In addition, a steam boiler is installed at an outer portion of the fly habitat.

Here, the steam boiler is characterized in that it is connected to the boiler pipe piped in the Paris form room, the water supply pipe installed in the cover and the boiler pipe installed in the allegory room, respectively.

In addition, any one of the caterpillar farm or the cover is characterized in that the rotation.

The present invention configured as described above has the effect of fixing the breeding room in which the larvae grow so that the larvae do not suffer from stress and grow and develop in a narrow space for mass production.

In other words, by installing the larval breeding room and the flies larvae in the lower part of the interior and the flies that are cut off from the outside, the pupae that flies spawning, hatching and larvae growth in one space are allegorized as flies. By repeating the ecological cycle, it is effective to efficiently and continuously produce the best larvae.

In addition, the larvae are divided into a plurality of breeding rooms, and the cover that covers the breeding room is equipped with facilities that provide a suitable breeding environment for each growth and development stage. By managing, there is an effect that the larvae can be raised economically and efficiently without load on the fly larvae rearing device.

In addition, by forming a plurality of breeding rooms so that the larvae can be reared in stages, and by installing various equipment providing conditions suitable for the growth and development of the larvae on the cover that covers the upper part of the divided breeding room to economically rotate, The larvae can be reared, and the continuous cultivation can be automatically carried out, so that a large amount of larvae can be produced.

In addition, a filter paper that drains smoothly to the bottom of the breeding room has a vacuum pump connected thereto, and a shower facility is installed at the upper ceiling to operate the feeding room in the 4-6th day larvae to feed and feed at the same time. By removing the hygiene, the larvae can be reared hygienically.

In addition, the shower sprayer mounted on the water supply pipe installed in the cover provided on the upper part of the 6th day breeding room uses the functions of general shower, high temperature spray, high temperature steam spray, etc., and the feeder mounted on the installed carrier is concentrated feed and By using the feed of fly feeding and spawning medium together, and by installing the larvae vacuum suction collector to the carrier, there is an effect to simplify and simplify the equipment to make maintenance easy.

In addition, a fly fever is installed on the side of the breeding room, and a sixth day larvae that have completed growth are provided with a passageway and an electronic scale sensor to move to the fever, whereby an opening and closing door of the fever is operated by an electronic balance sensor to control the movement of the larvae. By controlling the number of flies automatically, it is effective to control the number of flies and larvae.

On the other hand, various organic wastes such as livestock waste, fishery waste, food by-products, and food waste generated from livestock manure, slaughterhouses, etc. can be supplied to fly food, fly spawning mediators, and concentrated food for larvae to treat various organic wastes in large quantities. In addition, by utilizing the reared larvae as feed for livestock or for protein such as fish, it is possible to prevent environmental pollution and to supply larvae of animal protein.

1 is a cross-sectional view showing a fly larvae breeding apparatus according to the present invention.

Figure 2 is a plan view showing a fly larvae breeding apparatus according to the present invention.

Figure 3 is a view showing a larval kennel of the present invention.

4 is a view showing a cover of the present invention.

5 and 6 show the filter of the present invention.

7 is a view showing the allegory of the present invention.

8 is a view showing a working relationship of the fly larvae breeding apparatus according to the present invention, a view showing a state in which the cover rotates.

Figure 9 shows another working relationship of the fly larvae breeding apparatus according to the present invention, a view showing a state in which the larvae breeding device rotates.

Hereinafter, the fly larvae breeding apparatus according to the present invention will be described in detail with reference to the accompanying drawings.

1 is a cross-sectional view showing a fly larvae breeding apparatus according to the present invention, Figure 2 is a plan view showing a fly larvae breeding apparatus according to the present invention, Figure 3 is a view showing a larvae breeding ground of the present invention, Figure 4 is the present invention 5 is a view showing the cover of Figure 5 and Figure 6 is a view showing the filter of the present invention, Figure 7 is a view showing the allegory of the present invention.

1 to 7, the fly larvae breeding apparatus 100 according to the present invention is sealed is provided with a fly habitat 110, the fly chamber 112 is formed inside.

Here, a plurality of wires 114 are installed at the upper end of the fly habitation chamber 112 in a horizontal direction, and a plurality of fins 116 are installed in the wires 114 so that the flies inhabit and rest.

At this time, the 섶 116 is made of rice straw, paper or cloth ribbon and so on to eat dinner while the flies sit down to rest.

Further, a first heating pipe 118 is installed at a predetermined position of the upper end of the fly chamber 112 to maintain the room temperature of the fly chamber 112.

In addition, the side of the Paris chamber 112, the first ventilator 120 and the air purifier 122 is installed to maintain the sanitary environment of the fly sanitary, the lamp 124 is installed on the ceiling, temperature and A first detection measuring sensor 126 for measuring and detecting humidity and luminous intensity is provided, and a plurality of water supply facilities 128 are installed.

Therefore, by measuring the temperature, humidity, and luminous intensity of the fly chamber 112 by the first detection sensor 126, it is possible to maintain the optimal temperature, humidity and luminous intensity set at all times.

In addition, a vacuum cleaner 130 is installed at the bottom of the fly chamber 112 to suck and treat foreign matter or fly body.

In addition, the outer portion of the fly habitat 110 is provided with a steam boiler 132 for supplying steam to the first heating pipe 118.

In this case, a plurality of planks 134 may be installed at an upper end of the fly habitation chamber 112 to configure a maintenance movement passage.

Accordingly, the first heating pipe 118 and the first ventilator 120, the air purifier 122, the lighting lamp 124, and the water supply facility 128 are installed in the Paris chamber 112. By keeping them clean and dry, flies live in a comfortable environment and are able to spawn at the same time.

In addition, the caterpillar breeder 210 is installed in the fly breeding chamber 112 of the fly habitat 110 to breed the scattered larvae while the flies spawn.

Here, the caterpillar kennel 210 is installed in a circular shape on the bottom of the fly breeding room 112, is divided into a breeding room (212a, 212b, 212c, 212d, 212e, 212f, 212g) formed in plurality.

That is, the caterpillar kennel 210 is divided into a first breeding room to the seventh breeding room (212a, 212b, 212c, 212d, 212e, 212f, 212g) to suit the growth and development of the caterpillar from the stage of the larvae spawning.

At this time, the seventh breeding room 212g serves as a spawning field in which flies scatter.

Further, a second ventilator 214 is installed in each of the first to

seventh breeding rooms

212a, 212b, 212c, 212d, 212e, 212f and 212g, and the first to

seventh breeding rooms

212a and 212b, 212c, 212d, 212e, 212f, and 212g) The second detection measuring sensor 216 for detecting the temperature and humidity of each is installed.

In addition, one or two or more passages 218 are provided at the lower ends of the first to

seventh breeding rooms

212a, 212b, 212c, 212d, 212e, 212f, and 212g so as to protrude outwards, and the first breeding room. The opening and closing door 220 for controlling the passage 218 is provided inside the

seventh nursery

212a, 212b, 212c, 212d, 212e, 212f and 212g.

In addition, cover the upper part of the caterpillar farm 210, the cover 310 is divided into a plurality of rotatable to correspond to the first nursery to the seventh breeding room (212a, 212b, 212c, 212d, 212e, 212f, 212g) It is provided.

At this time, the cover 310 is fixed by the caterpillar kennel 210 and the locking member 222 so that the cover 310 is rotated in a predetermined direction while the locking member 222 repeats the lock / release operation every day. .

Here, the cover 310 is the first compartment to the seventh compartment partitioned so as to correspond to the first to seventh breeding room (212a, 212b, 212c, 212d, 212e, 212f, 212g) of the caterpillar kennel 210. (312a, 312b, 312c, 312d, 312e, 312f, 312g) are formed.

At this time, any one of the first to

seventh compartments

312a, 312b, 312c, 312d, 312e, 312f, and 312g, that is, the seventh compartment 312g is formed to be open.

Furthermore, a plurality of first to

seventh compartments

312a, 312b, 312c, 312d, 312e, 312f, and 312g, that is, the first to

third compartments

312a, 312b and 312c, may contain moisture. The mist spraying member 314 for supplying the gas is provided, and the

carriers

315a, 315b, and 315c are installed in the fourth to

sixth compartments

312d, 312e, and 312f.

The

feeders

316a and 316b are installed in the

carriers

315a and 315b installed in the fourth and

fifth compartments

312d and 312e, and the fourth to

sixth compartments

312d, 312e and 312f. ), The

water supply pipes

318a, 318b and 318c equipped with the

showers

319a, 319b and 319c are installed to be connected to the steam boiler 132.

In this case, CCTVs 320a, 320b, and 320c are installed in the fourth to

sixth compartments

312d, 312e, and 312f so that the growth state of the larvae can be observed.

In addition, a vacuum inhaler 322 for collecting the grown larvae is installed in the carrier 315c installed in the sixth compartment 312f.

On the other hand, the means for rotating the cover 310 by one space is applicable to a variety of means, the description of the configuration of the means for rotating the cover 310 is omitted.

At this time, the cover 310 installed on the upper part of the caterpillar kennel 210 may be rotated, the cover 310 is fixed, or the cover 310 is fixed, the caterpillar kennel 210 is configured to rotate Or, it may be configured to be able to rotate the caterpillar kennel 210 and the cover 310 at the same time.

In addition, the second ventilator 214 and the second detection measuring sensor 216 installed in the caterpillar kennel 210 are the first to

sixth compartments

312a, 312b, 312c, 312d, 312e, and 312f of the cover. The same effect installed in the first nursery room to the seventh nursery (212a, 212b, 212c, 212d, 212e, 212f, 212g) can be implemented.

In addition, a filter 410 is installed at the bottom of the first to

seventh breeding rooms

212a, 212b, 212c, 212d, 212e, 212f and 212g of the larval breeding farm 210.

Here, the filter 410 is a support 412 is provided in each of the first to seventh nursery (212a, 212b, 212c, 212d, 212e, 212f, 212g), the support 412 is a filter 414 Is installed.

Further, a lower portion of the support 412 is provided with a suction box 416 having a container shape, and a suction pipe 418 connected to the lower portion of the suction box 416 is provided, and the suction pipe 418 has a vacuum. Pump 420 is installed.

In addition, the fly habitat 112 of the fly habitat 110 is provided with a fable 510, the larvae are allegorized in the larvae rearing 210.

Here, the fable 510 is provided with a fable chamber 512 to be connected to the passage 218 provided in each of the first to seventh nursery (212a, 212b, 212c, 212d, 212e, 212f, 212g). .

At this time, the bottom of the allegory chamber 512 is mixed and mixed in a suitable ratio of foliar soil, sawdust, sand or soil in order to create an environment in which the grown larvae can allegorize.

Furthermore, an electronic balance sensor 514 is provided between the upper portion of the allegory chamber 512 and the outlet of the passage 218 to control the opening and closing door 220 to open and close the passage 218.

In addition, a second heating pipe 516 connected to the steam boiler 132 is installed inside the allegorical chamber 512, and a temperature sensor 518 for measuring the temperature of the allegorical chamber 512 is provided.

At this time, the outer bottom portion of the fable 510 is provided with a wheel 520 for facilitating the cleaning and movement of the fable 510.

Accordingly, when the opening and closing door 220 of the sixth breeding room 212f corresponding to the 6th day is opened in the sixth breeding room 212f, that is, the growth of the larvae is completed on the 6th day, the larvae that have completed the growth are opened and closed door 220 ) Is moved along the light entering the passage 218 to the passage 218 to the fable chamber 512, at which time by the electronic balance sensor 514 provided at the end of the passage 218. When the weight is measured and reaches the set weight, the caterpillar automatically blocks the opening and closing door 220 to block the caterpillar moving to the allegory room 512, and the caterpillar moved to the allegory room 512 becomes fable.

In this way, a part of the larvae that reached the sixth day to move to the allegory chamber 512, allegorized to flies to the fly habitat 112, and some larvae not moved to the allegory chamber 512 is commercialized By circulating as it is, the ecological cycle is connected automatically it is possible to continuously produce larvae breeding of flies.

Referring to the working relationship for the fly larvae breeding apparatus according to the present invention configured as described in detail as follows.

8 is a view showing the working relationship of the fly larvae breeding apparatus according to the present invention.

As shown therein, the fly larvae breeding apparatus 100 according to the present invention firstly, the fly habitating chamber 112 in which the fly inhabits an environment suitable for the fly.

That is, the steam boiler 132, the first ventilator 120, the air purifier 122, the lamp by the first detection sensor 126 for detecting the temperature, humidity, light intensity, etc. of the fly chamber 112. 124) and the water supply facility 128 is selectively operated to create a habitat environment.

Therefore, the interior of the Paris habitat chamber 112 operates the lamp 124 to brighten 12 hours of 24 hours a day, and to operate the steam boiler 132 to be heated through the first heating pipe 118. Bright 12 hours to maintain about 27 ℃ ~ 29 ℃, dark 12 hours to maintain about 20 ℃ ~ 22 ℃, operating the first ventilator 120 and air purifier 122, water supply facilities 128 By supplying water through, the air in the fly chamber 112 is clean, and the temperature, humidity and brightness are always kept the same so that the fly can inhabit and scatter in a comfortable environment.

As such, by keeping the fly habitat room 112 clean and clean at all times, the fly can be inhabited and scattered in a comfortable environment without stress.

In addition, by using the vacuum cleaner 130 installed at the bottom of the fly chamber 112, the body and foreign matters of the fly inhabiting the fly chamber 112 are removed by suction, thereby keeping the fly chamber 112 at all times. You can keep it clean.

In this way, the fly inhabiting the fly habitat room 112 is spawning at the larval breeding site 210 when the spawning time.

That is, among the first to

seventh compartments

312a, 312b, 312c, 312d, 312e, 312f, and 312g of the cover 310 covering the upper part of the caterpillar kennel 210, that is, The seventh compartment 312g corresponds to the opened seventh compartment 312g among the first to

seventh cages

212a, 212b, 212c, 212d, 212e, 212f and 212g of the larval cage 210. They enter the breeding room and spawn.

At this time, the first breeding room to the third breeding room (212a, 212b, 212c) without feeding the concentrated food without feeding the concentrated feed and spawning medium made of the feed and spawning medium made of the intestines of the fish or animals fed in the sixth compartment (312f) The fourth to sixth breeding rooms (212d, 212e, 212f) are supplied with a fair amount of concentrated feed made of various organic wastes, such as livestock manure, livestock waste, food by-products and food waste, 6 to 12 times a day depending on the growth stage. .

Here, a place where flies are scattered among the first to

seventh breeding rooms

212a, 212b, 212c, 212d, 212e, 212f and 212g of the larval farm is set as the seventh breeding room 212g.

As described above, the cover rotates one space after one day in the state in which the flies are scattered in the seventh breeding room 212g of the larval breeding farm 210.

That is, in the state in which the open seventh compartment 312g of the cover 310 is positioned above the seventh nursery 212g, the flies are opened to the seventh nursery 212g through the seventh compartment 312g. Come in and spawn.

After 1 day in this state, the locking member 222 for fixing the cover 310 is released, and after the locking member 222 is released, the cover 310 is rotated to open the seventh compartment 312g. It is located at the upper part of the sixth breeding room (212f), which is a full-fledged feeding tank, and is opened to switch to the seventh breeding room (212g) so that the flies can spawn. The first compartment 312a of 310 is switched and positioned.

In this manner, as the locking member 222 is canceled every 1 day, the cover 310 rotates one space to provide the optimum habitat for each growth stage, and the larvae can be commercialized until the 6th day. ) The larvae are reared.

At this time, according to the position of the seventh compartment part 312g opened by the rotation of the cover 310 installed on the upper part of the first to seventh nursery (212a, 212b, 212c, 212d, 212e, 212f, 212g). The first to

seventh breeding rooms

212a, 212b, 212c, 212d, 212e, 212f, and 212g are set and determined from day 1 to day 6 of the breeding room and the larvae.

The second caterpillar sensor is installed at the first compartment to the

third compartment

312a, 312b, and 312c of the cover 310 in the larvae that are reared in the first to

third breeding rooms

212a, 212b, and 212c. When 216 measures the humidity and lower than the set humidity, the mist ratio is sprayed through the mist spray member 314 to maintain a constant humidity at all times.

In addition, the feeders (316a, 316b) mounted on the carriers (315a, 315b) installed in the fourth compartment and the fifth compartment (312d, 312e) located above the fourth and fifth cages (212d, 212e). Supply concentrated food made by treating organic waste such as livestock manure, livestock waste, food by-products, food waste, etc., but through water supply pipes (318a, 318b) before feeding to feeders (316a, 316b). Injecting the water to the shower (319a, 319b) and at the same time by operating the vacuum pump 420 by the water sprayed through the shower (319a, 319b) foreign matter, such as secretion or excretion through the filter 414 ( 416 and the foreign matter and water collected in the suction box 416 is discharged to the outside through the suction pipe 418.

Therefore, the water is sprayed by operating the electric pump 420 while simultaneously spraying water through the

showers

319a and 319b before feeding food to the fourth and

fifth breeding rooms

212d and 212e. Through the 414 to the suction box 416, foreign matter and water collected in the suction box 416 is discharged to the outside by the operation of the vacuum pump 420, the caterpillar growth and development in a comfortable, hygienic environment Done.

Then, the sixth day of the larval growth is completed, that is, the opening and closing door 220 installed in the sixth breeding room 212g is opened to open the passage 218, and the larvae that have completed the growth through the open passage 218 pass through the passage 218. Follow the light coming into the fable chamber (512).

At this time, when the caterpillar moves to the allegory chamber 512 through the passage 218, it passes through the electronic balance sensor 514.

Thus, when the caterpillar moving to the allegory chamber 512 reaches the set weight in the process of passing through the electronic balance sensor 514, the door 220 is automatically closed by the detection of the electronic balance sensor 514. Block passage 218.

Therefore, a part of the larvae bred in the sixth breeding chamber 212g moves to the allegorical chamber 512 through the passage 218 to be allegorized as a fly.

The grown caterpillar moved to the allegory chamber 512 as described above is moved to the flies habitat chamber 112 by fable to flies, and then to the caterpillar kennel 210 through the seventh compartment 312g where the cover 310 is opened. Spawn.

At this time, the allegory chamber 512 is the allegory when the steam boiler 132 is operated by detecting a constant temperature, that is, the temperature sensor 518 by the temperature sensor 518 so that the larvae grow into flies. The second heating pipe 516 piped to the chamber 512 maintains a constant temperature of about 22 ℃ ~ 26 ℃.

On the other hand, the caterpillar fully grown in the sixth breeding room (212f) is hot water, that is, about 100 ℃ by the steam boiler 132 connected to the water supply pipe (318c) installed in the sixth compartment (312f) of the cover 310 At the same time spraying hot water of the vacuum pump 420 is operated.

At this time, the water supply pipe 318c installed in the sixth compartment 312f of the cover 310 is sprayed by using a general water of about 28 ℃, high temperature water of 100 ℃, steam spray of 160 ℃ high temperature Done.

As such, the hot water is injected through the shower 319c of the water supply pipe 318c and the vacuum pump 420 is operated to remove foreign substances such as secretions and excreta in the sixth breeding room 212f, and thus, the sixth breeding room 212f. Boiled larvae reared in the primary boiled first, and then steamed by steaming high temperature steam of about 160 ℃ second, the larvae with a vacuum inhaler 322 mounted on the carrier 315c installed in the sixth compartment (212f) It is sucked and transported to the outside and vacuum packed by a separate device to be stored.

As described above, a part of the fully grown larvae inhabiting the sixth breeding room 212f moves to the allegory room 512 and is allegorized into flies, and the larvae remaining in the sixth breeding room 212f are commercialized through processing and packaging steps. do.

When the larvae reared in the sixth breeding room 212f are collected, the

feeders

316a and 316b mounted on the

carriers

315a and 315b operate while the fly feeding and spawning medium is made of fish or animal intestines. After feeding the cover 310 is rotated one more space is converted into a scattering room, the seventh breeding room (212g) of the seventh compartment (312g) that the cover 310 is opened.

That is, in the state in which the larvae are commercialized on the 6th day of the sixth breeding room 212f, the cover 310 rotates in the direction of the fifth breeding room 212e, which is the fifth day, so that the fifth breeding room 212e, where the larvae are grown, is sixth. The primary larvae are converted to the sixth breeding room 212f.

As described above, the cover 310 rotates every day, and the larvae are reared. On the 6th day, the larvae move to the allegory chamber 512 to the flies to the fly habitat 112, and the remaining larvae By producing the larvae by repeating the commercialization process, the ecological cycle is continuous and the larvae are reared continuously.

In this way, the cover 310 is rotated one space per day, which is in communication with the seventh compartment (312g) of the first nursery to the second nursery (212a, 212b, 212c, 212d, 212e, 212f, 212g). Scattered sequentially, and after one day after the completion of spawning cover 310 is rotated one space to become the first day at the same time flies scattered in the breeding room communicating with the seventh compartment (312g) until the sixth day The larvae are raised in stages.

Thus, by repeating the operation as described above it is possible to bypass the flies and breed the larvae and commercialize.

Meanwhile, as shown in FIG. 9, the cover 310 may realize the same working relationship and effect as the cover 310 rotates even when the caterpillar kennel 210 is rotated in a fixed state.

In the above description of the preferred embodiment of the fly larvae breeding apparatus according to the present invention, the present invention is not limited to this, and the invention is carried out by various modifications within the scope of the claims and the detailed description of the invention and the accompanying drawings. It is possible to do this, which also belongs to the scope of the present invention.

Claims

Parisian Habitat,

Caterpillar cultivation site is installed in the fly habitat,

Fly larvae breeding device, characterized in that made of a cover rotatably installed on the upper larvae.
The method of claim 1,

The flies larvae rearing device, characterized in that a plurality of wires are installed, the wires are fixed to the wires, the fly habitating chamber is installed with a first heating pipe.
The method of claim 2,

The larvae flies larvae breeding apparatus, characterized in that the ribbon made of straw, paper or cloth.
The method of claim 2,

The larvae breeding device, characterized in that a plurality of planks are installed in the fly habitat.
The method of claim 2,

The fly larvae are equipped with a first ventilator and an air purifier, a water supply facility is installed, a lamp is installed on the ceiling, and a fly larvae is provided with a first detection sensor for sensing temperature, humidity, and brightness. Breeding device.
The method of claim 2,

A fly larvae rearing device, characterized in that the vacuum cleaner is further provided on the inner lower end of the fly habitat.
The method of claim 1,

The larval kennel is a fly larvae breeding apparatus, characterized in that the kennel is divided into a plurality.
The method of claim 7, wherein

The breeding room is equipped with a second ventilator, fly larvae breeding apparatus, characterized in that the second detection measuring sensor for detecting the temperature and humidity is provided.
The method of claim 7, wherein

The caterpillar larvae breeding device is characterized in that the caterpillar passage protruding outward is formed, the opening and closing door to control the passage is provided.
The method of claim 1,

The cover is a caterpillar larvae rearing device, characterized in that the partition is formed to correspond to the rearing room of the caterpillar kennel, one of the compartments is open to form an open portion.
The method of claim 10,

The cover is a larvae rearing device, characterized in that the mist injection member is installed in some of the partitioned compartment.
The method of claim 11,

The cover is a larvae breeding device, characterized in that the water supply pipe equipped with a feeder and a shower is installed in a part of the remaining compartment is installed mist spray member.
The method of claim 12,

Flies larvae breeding device, characterized in that the vacuum suction unit is installed in any one of the compartments in which the air supply and the water supply pipe is installed.
The method of claim 10,

The compartment is a fly larvae breeding device, characterized in that the second ventilator is installed, the second detection sensor for sensing the temperature and humidity.
The method of claim 1,

The cover is a larvae breeding device, characterized in that the lock member is further provided with a lock / unlock selectively in the larvae.
The method of claim 1,

Fly larvae breeding apparatus, characterized in that the filter is further installed on the bottom of each of the breeding room of the larvae kennel.
The method of claim 16,

The filter is provided with a support on the bottom of the kennel, the filter is installed on the support,

A suction box is provided below the support,

And a suction pipe connected to the suction box, wherein the suction pipe is provided with a vacuum pump.
The method of claim 1,

The fly larvae breeding apparatus is installed in the fly habitat of the fly habitat, characterized in that the fables are installed to be connected to the passage formed in the kennel of the larvae farm.
The method of claim 18,

The fable larvae breeding apparatus, characterized in that the electronic scale sensor is provided to be located at the end of the passage in the upper portion, the second heating pipe is installed inside, the fable chamber is installed with a temperature sensor.
The method according to any one of claims 1 to 19,

Flies larvae breeding apparatus, characterized in that the steam boiler is installed on the outside of the fly habitat.
The method of claim 20,

The steam boiler is a fly larvae breeding apparatus, characterized in that connected to each of the boiler pipes and the boiler pipes installed in the cover, the water supply pipe installed in the cover and the fable chamber.
The method of claim 1,

The fly larvae breeding device, characterized in that any one of the larvae kennel or cover is rotated.