JP2002011440A - Insect-biological treatment system for organic waste and organic waste aging tray - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide an organic waste insect-biological treatment system capable of efficiently performing insect-biological treatment for converting organic waste into a nontoxic or low-toxic material by allowing insect larvae to eat the organic waste. SOLUTION: This treatment system is provided with: a tray conveyance means for successively conveying trays T in each of which animal feces W are placed or to be placed; an animal feces feed means for feeding the animal feces W to each of the empty trays T successively conveyed by the tray conveyance means; an insect feed means for feeding eggs or young larvae of houseflies (Musca domestica) to the unaged animal feces W in the successively conveyed trays T to which the animal feces are fed; an animal feces aging means for stacking up such trays T so as to arrange them in many tiers and storing and aging the animal feces W in the trays T for a required period of time; an insect recovery means for recovering housefly larvae creeping out from the trays T during the aging, or pupae developed by metamorphosis from such housefly larvae; and a waste recovery means for recovering the aged animal feces W from the trays T successively conveyed by the tray conveyance means after completion of the aging.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to an organic waste insect biotreatment system and an organic waste curing shelf, and more particularly, to harmless organic waste such as animal dung by feeding on insect larvae such as housefly maggots. The present invention relates to an organic waste insect biotreatment system and an organic waste curing shelf used in the system.

[0002]

2. Description of the Related Art Animal dung (cow dung, chicken dung, etc.), which is a typical organic waste (hereinafter sometimes simply referred to as "waste")
In recent years, large quantities have been generated along with the expansion of livestock production, and their treatment has become a problem. In particular, in recent years when environmental standards have become strict, it is not possible to easily discard unpleasant animal dung that emits offensive odor.

[0003] In order to solve the problem of treating animal dung, it has been proposed to use insect biotreatment which feeds animal dung to insect larvae to make them harmless or less harmful. This is because the animal dung that has been subjected to the insect biotreatment can be used as a useful organic fertilizer, and the larva or pupa of the insect grown on the animal dung can also be used as an industrial raw material. If what is obtained by the insect biotreatment can be reused as an organic fertilizer or an industrial raw material, the treatment cost of the biotreatment can be reduced, and the insect biotreatment is expected to be a practical treatment measure against the animal dung problem.

[0004]

However, in the case of the conventional insect biotreatment, if the treatment cannot be carried out efficiently, the problem caused by the large amount of livestock dung cannot be fundamentally solved. At the end of the insect biotreatment, animal dung and insect larvae and pupae remain mixed in the same container, so that it is necessary to separate animal dung from insect larvae and pupae. However, the work of separating a large number of small insect larvae from a large amount of animal dung requires not only a great deal of labor, but also when performing the work, it must endure bad smell and other discomfort, and the working environment is poor. Separation is not easy. However, if you do not separate larvae and pupae from animal dung,
The use of the treated animal dung as an organic fertilizer may lead to another problem that unnatural mass outbreaks of insects may occur. In addition, insect larvae and pupae cannot be used as industrial raw materials.

[0005] In view of the above-mentioned problems of the prior art, an object of the present invention is to efficiently carry out insect biotreatment which can be rendered harmless or low harmful by feeding organic waste to insect larvae. It is an object of the present invention to provide an insect biotreatment system for organic waste and an organic waste curing shelf used for the system.

[0006]

The above object is achieved by the invention described in each claim. In other words, the characteristic configuration of the insect biotreatment system for organic waste according to the present invention is a processing container transporting unit that sequentially transports a processing container in which the organic waste to be treated is placed, and sequentially sent by the processing container transporting unit. Waste providing means for providing the waste to be treated to the empty processing container, and the eggs or the young eggs of the insects in the uncured waste in the processing container to which the waste is provided and sent. Insect providing means for providing larvae, waste curing means for stacking the treatment containers in multiple stages and storing for a required period to cure waste, and larvae or crawling of insects coming out of the treatment container during curing Insect collecting means for collecting pupae generated by the change of the larvae, and a waste collecting means for collecting cured waste from the processing container which has been cured and is sequentially sent by the processing container conveying means. Lies in that it comprises a.

According to this configuration, the eggs to be treated or the young larvae of the insects are applied to the waste supplied to the processing container after the waste to be processed is supplied to the processing container sequentially transported. Later, during the period when the processing containers are stored in a stacked state, the organic waste is eaten by the insect larvae and the curing of the waste proceeds, while the insect larvae crawl out of the processing container during the curing. Alternatively, in addition to collecting the pupae generated by the change of the crawling larva, the cured (treated) waste is collected from the cured processing container which is conveyed after being cured.

[0008] In the case of this system, the provision of waste to the treatment vessel and the provision of eggs or young larvae of insects, and
In addition to almost automatically recovering the cured waste from the processing container, during the curing, the processing containers are stacked in multiple stages and a large amount of organic waste is cured at once. Can be performed efficiently.

The insect larva is a larva having the property of escaping at the end of life and the processing container is a top-opening pallet-shaped processing container in which at least a part of its side wall is inclined so as to fall outward. Preferably, there is.

According to this configuration, the larvae of the insects that have reached the end of life after eating the organic waste are guided to the side walls of the processing vessel that are inclined to fall outward according to the nature of escape at the end of life. Since it crawls out of the processing container quickly in a form, the recovery rate of insect larvae and pupae increases, which is convenient.

It is particularly preferable that the inclination angle of the side wall of the processing container which is inclined in a direction of falling outward is in the range of 15 ° to 45 °. The reason why the angle of inclination is preferably in the range of 15 ° to 45 ° is that if the angle of inclination is lower than 15 °, insect larvae before reaching the end of life can easily get out of the processing container, so that insect biotreatment proceeds. This is because when the inclination angle is higher than 45 °, the larvae of the insects that have reached the end of life tend to hardly come out of the processing container. The insect collecting means includes an insect accumulating portion located at a height equal to or lower than the height of the lowermost processing container among the processing containers stacked in multiple stages, and a direction in which each of the processing containers stacked in multiple stages falls outward. A receiving gutter having a receiving opening that opens immediately outside the processing container side wall that is inclined at an angle, and a receiving gutter type guide that has an outlet that faces directly below the insect retaining portion, and an insect collection that stores and accumulates larvae and pupae of the insect retaining It is preferable to include a tank and an insect transfer mechanism for transferring the larvae and pupae accumulated in the insect retaining section to the insect collection tank.

According to this configuration, the larvae of the insects crawling out of the side wall of the processing vessel inclined outward in the processing vessel enter the guide through the receiving port of the receiving gutter type guide and enter the insect through the discharge port. The larvae and pupae that have fallen into the stagnant area and accumulate in the stagnant area, while the larvae and pupae that accumulate in the insect stagnant area are transported to the insect collection tank by the insect transport mechanism, where they are stored and accumulated. Since the larvae and pupae of the insects are collected in parallel with the curing of the insect, the insect biotreatment can be performed more efficiently, which is convenient.

[0013] The waste supply means includes a waste supply pipe for supplying organic waste to be treated from above the treatment container, and a nozzle attached to the end of the pipe. The inside gradually widens in a horizontal direction substantially perpendicular to the transfer direction of the processing container from the base end to the front end and is opened as a horizontally long discharge port, and the waste discharged from the pipe passes through the nozzle. In addition to a waste diffusion guide that diffuses in a direction substantially perpendicular to the transfer direction of the processing container is provided in the nozzle, a long edge of the discharge port extends over the entire length of the long side. It is preferable to provide a leveling scraper projecting substantially horizontally outward.

According to this structure, the waste discharged from the pipe is diffused by the waste diffusion guide in a direction perpendicular to the transfer direction of the processing container, and then supplied to the processing container and supplied to the processing container. Since the surface of the waste is pressed and leveled by the leveling scraper, it is convenient that the organic waste to be treated is evenly spread at a uniform thickness on the bottom of the processing vessel.

Preferably, a waste heating and drying means for heating and drying the recovered cured waste is provided at a stage subsequent to the waste providing means.

According to this configuration, the excess heat is removed from the cured waste by the heat-drying treatment, and the larvae and pupae of the insects remaining without being collected are conveniently killed.

Preferably, the insect is a house fly and the organic waste to be treated is animal dung.

According to this structure, the housefly larva (maggot)
It is convenient because the odor of the animal dung which emits a bad odor is remarkably reduced and made harmless. The house fly repeats outbreaks all year round in a short cycle, and the larvae have a strong appetite. Therefore, the insect biotreatment proceeds rapidly, and it is remarkable to escape at the end of life. The recovery rate of larvae and pupae is good.

Further, the characteristic configuration of the organic waste curing shelf according to the present invention is that the processing containers can be stacked and stored and held in multiple stages, and the lowest one of the processing containers stacked in multiple stages. Insect retention part located below the height of the
A receiving gutter type guide having a receiving opening that opens just outside the inclined side wall of each of the processing containers and having a discharge opening facing the insect retaining portion substantially directly below, and each of the receiving gutter type guides is By arranging the inlet of the upper guide in a straight line substantially vertically so as to face the outlet of the guide immediately below, all of the outlets face the insect retaining portion substantially directly below. It is in.

According to this configuration, the insect biotreatment that can be made harmless or less harmful by feeding the organic waste to insect larvae is suitable for an insect biotreatment system for organic waste that can be efficiently performed. An organic waste curing shelf can be provided.

[0021]

Embodiments of the present invention will be described in detail with reference to the drawings. FIG. 1 is a block diagram showing a schematic configuration of a livestock dung insect biotreatment system (hereinafter, may be simply referred to as “system”) 1 according to the present embodiment.

As shown in FIG. 1, the system 1 includes a pretreatment section 2 and a livestock dung curing section 3 which is a kind of waste curing means.
And a post-processing unit 4 are provided on both sides of the livestock dung curing unit 3 so that the pre-processing unit 2 and the post-processing unit 4 are separated from each other.
The tray T, which is a kind of a processing container for storing the livestock dung to be processed, is circulated through the pretreatment unit 2, the livestock dung curing unit 3, the postprocessing unit 4, and the preprocessing unit 2 as indicated by the dashed line, and the insect bio is treated. Processing is performed.

That is, in the pretreatment section 2, after the manure to be treated is provided to the tray T, and after the egg of the housefly is applied to the manure provided to the tray T, the tray T is moved to the next manure curing section 3 Sent to In the livestock dung curing unit 3, while the trays T containing the livestock dung to which the housefly eggs have been added are stacked and stored in multiple stages, while the livestock dung is being eaten by the housefly larvae, while the livestock dung is being cured, The housefly larva crawling out of the curing tray T or the pupa produced by the change of the crawling larva are collected. And the tray T, which has finished the animal droppings and the collection of insect larvae and pupae,
It is sent to the next post-processing unit 4. In the post-processing unit 4, the tray T
After the cured waste is collected from the tray T, the empty tray T is returned to the pre-processing unit 2, and the same operation is repeated again. Hereinafter, the configuration of each of the units 2 to 4 will be described more specifically.

First, the configuration of the pre-processing unit 2 will be described. As shown in FIG. 2, the pre-processing unit 2 adds the animal droppings 5 to the animal droppings tank 5 that receives and stores the animal droppings W to be processed, which is carried from the outside, an ozone generator 6 that generates sterilizing ozone, and the like. Organic waste for preparation other than animal dung (okara, beer lees,
Shochu lees, coffee lees, molasses lees, meat, seafood, vegetable waste,
Mixing material tank 7 that receives and stores food waste etc.)
And a mixing tank 8 for mixing the manure W and the organic waste for mixing, and a former tray transporter, which is a kind of processing container transporter, for sequentially transporting the trays T before curing along a predetermined route. Unit 9, a livestock dung donor 10 that is a type of waste supply means that supplies livestock dung W to an empty tray T, and a tray T that is provided with livestock dung W and is sent by the front tray transport unit 9. Flies egg applicator 1 which is a kind of insect applying means for applying housefly eggs to uncured dung W in the sea
1 is provided.

In the animal dropping machine 10, as shown in FIGS. 2 and 3, the tray T is supported by a robot arm 10a.
A nozzle 10c is attached via a flexible hose 10d to the end of a pipe 10b for supplying animal dung W to be treated from above, and the animal dung W is discharged from the nozzle 10c to the moving tray T. It is configured to be laid on the bottom of T. And the nozzle 10c is
As shown in FIG. 4, the inside of the nozzle is perpendicular to the tray transfer direction from the base end to the tip and gradually widens in the horizontal direction to form a horizontally elongated discharge port 10A, and is opened as shown in FIGS. As shown in the figure, animal dung diffusion guides 10B and 10C are provided in the nozzle to diffuse the animal dung W coming out of the pipe 10b in the direction perpendicular to the tray transfer direction while passing through the nozzle. Further, at the edge of one long side 10D of the discharge port 10A, there is provided a leveling scraper 10E that projects substantially horizontally outward over the entire length of the long side 10D.

With the guides 10B and 10C for animal dung diffusion,
The interior of the nozzle 10c is divided into a plurality of passages, and the outlets of the passages are dispersed in a direction perpendicular to the tray transfer direction, so that the feces W are discharged while being diffused in a direction perpendicular to the tray transfer direction. It is configured to be.

As shown in FIG. 3 (a), the feces W discharged from the nozzle 10c to the bottom of the tray T while being diffused in a direction perpendicular to the tray transfer direction are transferred to the tray 10 as shown in FIG. 3 (b). Leveling scraper 10 as T moves
Since E is leveled from above, the animal dung W is evenly laid on the bottom of the tray T with a uniform thickness.

The former tray transport section 9 includes a livestock dung donor 10
A vibrator 9a is provided at a position at the subsequent stage, and the vibration of the vibrator 9a shakes the tray T to level the animal dung W, thereby reducing the thickness unevenness.

On the other hand, in the fly egg applicator 11, as shown in FIG.
The rear side of the pipe 11b for supplying the dung from the house feeds the housefly eggs from above the egg storage unit 11 via the feed pump 11d.
It communicates with c. Then, the housefly eggs are discharged from the pipe 11b to the moving tray T, and are uniformly spread on the animal droppings W laid on the bottom of the tray T.

In the pre-processing unit 2, the feeding of animal dung and the feeding of housefly eggs are performed separately by the two robot arms 10a and 11a. And the application of the housefly egg may be performed by one robot arm.

Next, the configuration of the livestock dung curing unit 3 having the organic waste curing shelf will be described. As shown in FIG. 7 or FIG. 8, in the animal dung curing unit 3, a large number of storage shelves 12A and 12B, which are a kind of organic waste curing shelves for stacking and storing the trays T in multiple stages (for example, around 10 stages), are provided. Has been
The livestock dung curing unit 3 transports the tray T, which has been fed after feeding the livestock dung and attaching eggs, to a mobile robot arm (not shown).
Are placed on empty storage shelves 12A and 12B and stacked and stored. Tray T on storage shelf 12A
Are stacked in two rows, and the tray T is 1 in the storage shelf 12B.
Stacked in rows. These storage shelves 12A and 12B
The lower part has wheels for movement, and storage shelves 12A,
12B can be easily moved.

On the other hand, as shown in FIGS. 9 and 10, each tray T placed on the storage shelves 12A and 12B is in the form of a pallet with an open top, and the entire shape is a substantially rectangular box-shaped flat box without a lid. It is. The size of the tray T is not limited to a specific value, but may be, for example, about 100 cm on a long side, about 250 cm on a short side, and about 15 cm in height. In the case of the tray T, both long sides TA are on the side wall T of the tray so as to prevent the fly larva (maggot) from crawling out.
a is vertical, and a return piece Tc is provided along the upper edge to project inward slightly downward from the horizontal. The sides of both short sides TB are approximately 2 in the direction in which the tray side wall Tb falls outward so that fly larvae (maggots) can easily crawl.
It has a configuration inclined at 0 °. Further, the material of the tray T is not limited to a specific material, but it is preferable to use a material which is hard to corrode, such as a reinforced plastic tray, a stainless steel tray, and a surface-treated aluminum tray. Can be

On the other hand, as shown in FIG. 7, the animal dung curing section 3 is provided with an insect retaining section 13 which is located at a height equal to or lower than the height of the lowermost tray T among the multiplied trays T. ing. Further, as shown in FIG.
Each of the trays A and 12B has a receiving gutter type guide 14 having a receiving port 14A which opens just outside the inclined tray side wall Tb of each tray T and a discharging port 14B which faces the insect retaining portion 13 almost directly below. Have been. Each gutter type guide 14
Is the guide 1 whose receiving port 14A of the upper guide 14 is
4 are arranged substantially linearly in a straight line so as to face the outlets 14B, so that all the outlets 14B face the insect retaining portion 13 substantially directly below. FIG.
As shown in the figure, in the case of the storage shelf 12A, the gutter type guide 14 located in the middle is a common receptacle 1 for the trays T on both sides.
4A. During the curing period, as shown in FIG. 7, the larva crawled out of the tray T enters the receiving gutter type guide 14 through the receiving port 4 of the receiving gutter type guide 14 and is discharged from the outlet 14.
The larvae or pupae changed from the larvae accumulate in the insect accumulating portion 13 after dropping from B to the insect accumulating portion 13.

Further, the insect accumulating section 13 is connected to an insect collecting tank 15 provided in the post-processing section 4 via a pipe 16 and has a vacuum suction mechanism (an insect suction mechanism) attached to the insect collecting tank 15. By operating the transfer mechanism 17, the housefly larvae / pupae accumulated in the insect accumulating portion 13 are sent to the insect collecting tank 15 via the pipe 16 and collected. The vacuum suction may be performed at all times, or may be detected each time a larva or pupa of a housefly is sent by a sensor or the like, and may be suctioned each time. As described above, in the system 1, since the larvae and pupae of the house fly are collected in parallel with the curing of the animal dung W, the insect biotreatment can be performed more efficiently.

The tray T that has been cured in the animal dung curing unit 3 is taken out of the storage shelves 12A and 12B by a mobile robot arm (not shown), and then sent to the next post-processing unit 4.

Next, the configuration of the post-processing unit 4 will be described. As shown in FIG. 11, the post-processing unit 4 is a post-tray transport unit 18 that is a type of processing container transport unit that sequentially transports the trays T sent from the livestock dung curing unit 3 after curing and along a predetermined route. And a dung collection machine 19 which is a kind of waste collection means for collecting the cured dung W from the tray T sequentially sent, and a dung heating and drying provided via a transient in a stage subsequent to the dung collection machine 19 Machine 20 and an automatic baling machine 21 provided via a transient at the subsequent stage of the animal dung heating and drying machine 20, and the animal dung W collected by the animal dung collection machine 19 is heated and dried by the animal dung heating and drying machine 20. After removing excess water and killing the larvae and pupae of the insects remaining without being collected, the animal dung W is packed in the automatic packing machine 21 so as to be ready for shipment as organic compost. It is.

In the animal dung collection machine 19, the robot arm 19
a receiving hopper 19c is provided on the rear side of the pipe 19b for sucking the livestock excrement W from above the tray T and vacuuming the livestock excrement W from above the tray T. W is sucked by the pipe 19b, sent to the hopper 19c, and collected. The vacuum suction may be performed all the time, or may be performed by detecting a sent livestock droppings W by a sensor or the like and sucking each time.

The post-processing unit 4 includes a device (not shown) for boiling the housefly larva to adult collected in the insect collection tank 15 and a device for packing the larva to adult (both not shown). Is also provided, so that the housefly larva to adult can be shipped as industrial raw materials.

Furthermore, in the system 1 of the present embodiment, a part of the collected housefly larvae and pupae is used not only as an industrial raw material but also as a housefly egg necessary for new insect biotreatment. Also used for production. That is, in this system 1, the housefly used for insect biotreatment is also recycled.

In this system 1, it is preferable that air-conditioning equipment for appropriately maintaining the temperature, humidity, and the like in each place are also provided in appropriate places.

Hereinafter, an insect biotreatment process of animal dung W performed by the system 1 of the present embodiment will be described.

Step (1): In the pre-treatment section 2, the animal dung W carried from the outside is sterilized in advance with ozone, and after the organic waste for preparation also sterilized with ozone is added and mixed, The animal dung W which is provided to the tray 1 sequentially transferred by the animal dung donor 10 and laid on the bottom of the tray T
The egg of the house fly is provided by the fly egg providing machine 11 and is sent to the next animal dung curing unit 3.

Step (2): In the livestock dung curing unit 3, the livestock dung W is cured while the trays T are stacked in multiple stages and stored in the storage shelves 12A and 12B for a required period (for example, about one week). In parallel with the above, collection of pupae produced by the change of the housefly larva or the crawling larva crawling from the tray T during curing is performed. Then, the tray T that has been cured of the animal dung W is sent to the next post-processing unit 4.

Step (3): In the post-processing section 4, after the cured animal dung W in the tray 1 sequentially transferred is collected by the animal dung collection machine 19, the organic waste is heated and dried by the animal dung heating and drying machine 20. The bag is packed by the automatic packing machine 21 as compost or the like. In addition, the collected housefly larva to adult can also be packed in a pack after boiling treatment, if necessary. On the other hand, the emptied tray T is cleaned and disinfected as necessary, sent back to the pre-processing unit 2 and again subjected to the processes (1) to (5).
(3) is repeated.

As described above, according to the system 1 of the present embodiment, the supply of the livestock dung W to be treated to the tray T and the laying of the housefly, and the collection of the cured livestock dung W from the tray T are performed. Heat drying and bag packing are almost automatically performed, and processing of collected fly larvae-adults-packing is also almost automatically performed. In addition, during curing, the trays T are stacked in multiple stages, and a large amount of animal dung W is cured at once, so that insect biotreatment can be performed efficiently.

[Another Embodiment] (1) In the system of the above-described embodiment, an example is shown in which the trays T are transported one by one also in the livestock dung curing unit 3, but in the livestock dung curing unit 3, a large number of trays T May be transported together with the storage shelves in a state of being stacked.

(2) In the system of the above-described embodiment, the configuration example in which the pre-processing unit 2 and the post-processing unit 4 are separately arranged on both sides of the livestock dung curing unit 3 is shown. The pre-processing unit 2 and the post-processing unit 4 may be arranged collectively.

(3) In the above embodiment, an example in which housefly eggs are sprayed on animal dung was shown. However, a configuration may be employed in which a young fly larva or a mixture of eggs and young larvae of housefly is sprayed on animal dung. (4) The organic waste to be treated by the insect biotreatment system of the present invention is not limited to animal dung, and for example, human dung and shochu lees may be treated.

(5) The insect larva used for the insect biotreatment in the present invention is not limited to the housefly larva. Insect larvae suitable for the type of organic waste to be treated and the content of biotreatment may be appropriately selected and used.

[Brief description of the drawings]

FIG. 1 is a block diagram illustrating a schematic configuration of an insect biotreatment system for animal dung according to an embodiment of the present invention.

FIG. 2 is a schematic diagram showing a configuration of a preprocessing unit of the system in FIG. 1;

FIG. 3 is a schematic diagram showing the configuration and operation of the animal dropping machine of the system of FIG. 1;

FIG. 4 is a perspective view showing a nozzle for discharging livestock droppings of the livestock dropping machine of the system of FIG. 1;

FIG. 5 is a front view showing a nozzle for discharging animal dung of the animal dung donor of the system of FIG. 1;

FIG. 6 is a side view showing a nozzle for discharging animal dung of the animal dung donor of the system of FIG. 1;

FIG. 7 is a schematic diagram showing a configuration around a storage shelf (organic waste curing shelf) of a tray in the animal dung curing unit of the system of FIG. 1;

FIG. 8 is a partial perspective view showing a storage state of a tray in a livestock dung curing unit of the system of FIG. 1;

FIG. 9 is a front view showing a tray used in the system of FIG. 1;

FIG. 10 is a perspective view showing a tray used in the system of FIG. 1;

FIG. 11 is a schematic diagram showing a configuration of a post-processing unit of the system in FIG. 1;

[Explanation of symbols]

Reference Signs List 1 Insect biotreatment system 3 Waste curing means (animal dung curing section) 9 Processing container transport means (previous tray transport section) 10 Waste donating means (animal dung donor machine) 10b Pipe 10c Nozzle 10A Discharge port 10B, 10C Guide 10D Long side Reference Signs List 10E Scraper for leveling 11 Insect applying means 12A, 12B Organic waste curing shelf (storage shelf) 13 Insect retaining section 14 Receiving gutter type guide 14A Receiving port 14B Discharge port 15 Insect collecting means (insect collecting tank) 17 Vacuum suction mechanism 18 Processing container transport means (later tray transport section) 19 Waste collection means (animal waste collection machine) 20 Animal waste heating dryer T Processing container (tray) Tb Tray side wall W Organic waste (animal waste)

Claims (7)

[Claims] 1. A system for performing insect biotreatment in which organic waste as an object to be treated is rendered harmless by feeding on insect larvae, wherein a treatment container in which the organic waste is placed is sequentially transported. Processing vessel transporting means, waste providing means for providing the organic waste to the empty processing vessel sequentially sent by the processing vessel transporting means, and the processing wherein the organic waste is provided and sent. An insect applying means for applying the eggs or the young larvae of the insects to the uncured organic waste in the container, and a waste curing for curing the organic waste by storing the treatment containers in a multi-tiered storage for a required period of time Means, insect collecting means for collecting larvae of the insect larvae crawling out of the processing container during curing or larvae crawling out of the processing container, and insect collecting means for collecting pupae generated by the change, and sequentially sent by the processing container conveying means after curing. Waste collecting means for collecting cured organic waste from the processing container. 2. The larvae of the insects which have a property of escaping at the end of life and the processing container is a top-opening pallet-like processing in which at least a part of a side wall thereof is inclined so as to fall outward. The insect biotreatment system for organic waste according to claim 1, which is a container. 3. The insect collecting section, wherein the insect collecting section is located at a height equal to or lower than the height of the lowermost processing container of the processing containers stacked in multiple stages, and the processing containers stacked in multiple stages. A receiving gutter type guide having a receiving opening that opens immediately outside the processing container side wall that is inclined in a direction to fall outward, and a discharge gutter having an outlet facing directly below the insect retaining portion, and a larva / pupa of the insect retaining The insect biotreatment system for organic waste according to claim 2, further comprising an insect collection tank for storing and accumulating the insects, and an insect transfer mechanism for transferring the larvae and pupae accumulated in the insect accumulation part to the insect collection tank. 4. The waste supply means includes a waste supply pipe for supplying organic waste to be treated from above the treatment container, and a nozzle attached to the end of the pipe. The inside of the nozzle is gradually widened in a horizontal direction at substantially right angles to the processing container transfer direction from the base end to the front end, and is opened as a horizontally long discharge port, and the waste discharged from the pipe is discharged. A waste diffusion guide for diffusing in a direction substantially perpendicular to the transfer direction of the processing container while passing through the nozzle is provided in the nozzle. The insect biotreatment system for organic waste according to any one of claims 1 to 3, further comprising a leveling scraper that projects substantially horizontally outward over the entire length of the insect waste. 5. The organic waste according to claim 1, further comprising a waste heating / drying means for heating and drying the recovered cured organic waste at a stage subsequent to the waste providing means. Insect bioprocessing system. 6. The insect biotreatment system for organic waste according to claim 1, wherein the insect is a house fly and the organic waste is animal dung. 7. An insect accumulating portion capable of storing and holding the processing containers in a multi-tiered manner, wherein the insect accumulating portion is located at a height equal to or lower than the height of the lowermost processing container of the multi-tiered processing containers. A receiving gutter type guide having a receiving opening that opens just outside the inclined side wall of the processing container and having a discharge opening facing the insect retaining portion substantially directly below, and each of the receiving gutter type guides Organic waste is arranged such that all of the outlets face the insect retention part substantially directly below by being arranged substantially linearly in a vertical direction so that the receiving port of the guide faces the outlet of the guide immediately below. Curing shelf.