KR102387937B1 - Mobile UV irradiation facility for eradicating Poultry Red Mite in henhouse - Google Patents

Abstract

The present invention discloses a mobile UV irradiation device in a cage for controlling chicken mites. The present invention is provided with wheels and a moving bogie that reciprocates in the left and right directions of the cage module; It is mounted on the moving cart and has a diffusion shielding means for shielding UVC from spreading to the upper side of a plurality of feeding troughs provided on each floor of the cage module and to the lower side of the poultry conveyor. UV irradiation unit for irradiating the site; a driving means mounted on the moving bogie and having a battery and a motor driven by the battery to drive the moving bogie; a charging dock disposed at at least one end of the cage module and supplied with power from the outside to charge the battery as the mobile cart is docked; and a controller for controlling the operation of the above components. Preferably, it may further include a bogie guide for guiding the moving bogie so that the moving bogie can run in parallel with the cage module while maintaining a predetermined interval.
The present invention can effectively eradicate various bacteria and parasites, especially chicken mites, parasitic in cages while minimizing various side effects such as stress on chickens caused by UV irradiation by maximally suppressing direct irradiation of ultraviolet rays to chickens.

Description

Mobile UV irradiation facility for eradicating Poultry Red Mite in henhouse

The present invention relates to a portable UV irradiation device in a cage used to eradicate various parasites, bacteria, fungi and/or viruses including chicken mites in poultry farms, and more particularly, UVC having strong sterilization and insecticidal power in a cage However, various parasites such as chicken mites, bacteria, mold and / or It relates to a portable UV irradiation device in a cage developed to effectively eradicate bacteria.

Chicken poultry can be managed relatively easily with little land, capital, and labor, and the short growing period makes it quicker to recover capital. According to its merits, it can be said that it is the most widely practiced livestock industry.

These poultry poultry are divided into broiler poultry for chicken production and chaean poultry poultry for egg production according to their breeding purpose. The flat lay method of raising broiler chickens on the ground is mainly used to obtain quality chicken. On the other hand, chaeran poultry, as shown in FIG. 1, in consideration of the ease of egg collection, the convenience of breeding, and the efficiency of space utilization, a plurality of cages (C) accommodating 4 to 7 chickens in one horizontally And a method of group breeding in a so-called apartment-type cage module (M) arranged in succession vertically is generally used.

On each floor of the cage module (M), a gutter-type feeding trough (G) is long arranged so that a plurality of horizontally arranged cages (C) share it, so that feed is automatically supplied, and the The egg tray (T) is provided side by side at the bottom, so that the eggs can be easily collected.

The bottom of the cage (C) is inclined so that the eggs are easily discharged into the egg tray (T), and an air duct (D) for supplying air to the cage (C) is installed in the center of the bottom of the cage (C). . And a chicken manure conveyor V is provided at the lower portion of the cage C to discharge the chicken manure to the outside.

However, due to the nature of group breeding in a narrow space, the risk of outbreak and infection of various diseases including bird flu is very high, and there is a constant risk of group death due to infectious diseases. Strict hygiene management is very important.

In particular, chicken mites, blood-sucking parasites that suck blood while parasitizing in poultry such as chickens, cause anemia and death in chickens when a large number of parasites are parasitized, and can also become a medium for encephalitis, poultry cholera, and leukemia.

Chicken mites are the biggest problem in poultry farms worldwide. They cause severe stress to the flock, causing serious side effects such as weight loss, reduced feed efficiency, and decreased egg laying rate, and are a major cause of infection and spread of various diseases. According to the National Institute of Livestock Science, the infection rate of chicken mites in domestic poultry farms is estimated to reach 94%.

Therefore, in poultry farms, eradication of various bacteria and parasites, especially chicken mites, is of utmost importance, and various attempts are being made for this purpose.

For example, the most common method is to periodically spray pesticides in the hens, which is not only expensive, but also contains pesticides on the skin and body of the chickens, so there is a risk of contamination of eggs and chickens.

In addition, chicken mites have very strong vitality, so they are not easily killed by insecticides, etc., and when insecticides are sprayed, they seem to hide in crevices in the cage and disappear, but reappear quickly and become parasitic on chickens. In addition, it was known that chicken mites only take about 7 to 8 days from egg to adult, and since the egg is not killed by pesticides, it is virtually impossible to eradicate.

On the other hand, Patent Document 1 discloses a device for sterilizing and killing chicken mites by sequentially irradiating each cage with ultraviolet rays while moving the UV LED lamp along the passage for the efficient pesticide of chicken mites in poultry farms. It contains the following problems.

First, since the UV LED lamp irradiates UV light for the entire cage (C), there is a problem that UV light is directly irradiated to the chicken inside the cage. Ultraviolet rays can kill chicken worms with their strong sterilizing power, but when a living organism such as the human body is exposed to ultraviolet rays for a certain period of time, it has an adverse effect of causing serious side effects.

Therefore, when UV rays are directly irradiated to chickens, the chickens may be shocked and subjected to severe stress, which may lead to weight loss and lowered egg production rates.

Second, chicken mites are nocturnal and hide mainly in the lower surface of the feeding tube (G) and the air duct (D) during the day, then parasitize the chickens at night and suck blood. It is difficult to expect reliable eradication of chicken mites.

Third, even if the irradiation direction of the UV LED lamp is directed toward the feeding trough (G) through the direction control unit, the irradiated UV light is diffused and inevitably irradiated directly to the chicken in the cage (C). does not exist.

Fourth, in particular, since the UV LED lamp is moved intermittently by a certain step and the lamp is repeatedly turned on/off and intensively irradiated with UV light for a predetermined time throughout the cage (C), troubles of chickens due to UV light will inevitably be caused. Inevitably, since the lamp is turned off during movement, a place out of the irradiation range of ultraviolet rays may occur, making it difficult to achieve reliable killing of parasites and bacteria such as chicken mites.

Korean Patent Registration 10-2047537

The present invention has been devised to solve the above-described problems in the prior art, and minimizes various side effects such as stress on chickens caused by UV irradiation by maximally suppressing direct irradiation of ultraviolet rays to chickens, and various bacteria parasitic in cages and An object of the present invention is to provide a portable UV irradiation device in a cage for controlling chicken mites that can effectively eradicate parasites, particularly chicken mites.

Another object of the present invention is to reliably prevent secondary contamination of eggs or chickens by pesticides, while effectively eradicating various parasites, viruses and/or bacteria such as chicken mites. to provide an investigation device.

In order to achieve these objects, the present inventor closely observed the habits and ecology of chicken mites, and while irradiating UVC on chicken mites under various conditions, the change and time to reach death were tested.

According to the observations of the present inventors, chicken mites grow from eggs to adults in about 7 to 8 days, and during the daytime, they hide mainly behind the feeding tube and in the air ducts, etc. appeared to do In addition, it was found that both chicken mites and eggs were killed when the cumulative UVC irradiation amount exceeded a certain amount, and it was confirmed that the higher the UVC irradiation amount, the faster the death.

Figure 2 is an example of a graph showing the relationship between the period required for the death of chicken mites according to the amount of UVC irradiation that the present inventors proceeded under various conditions, and the UVC irradiation amount is 2000㎼/cm2 per second.

When irradiated for 210 seconds under the above conditions, it takes about 6 days to kill the chicken mite, but it takes about 4 days in the section from 230 to 270 seconds. can

In contrast, the state of chicken mites before and after UVC irradiation and the state of eggs are shown in FIG. 3 , and as shown in (a), after UVC irradiation, the eggs were perforated and died while drying, as can be seen in (b). As shown, it was confirmed that the vampire straw (P) of the chicken mite (RM) was broken and died.

Based on the above consideration of the present inventor, the mobile ultraviolet irradiation device in the cage for controlling chicken mites according to the present invention is a series of cage modules in which a plurality of cages accommodating chickens are horizontally arranged side by side, arranged in one or more layers. There is a cage for controlling chicken mites in a poultry farm equipped with a feeding trough and an egg tray arranged horizontally over the entire length for each layer of the cage module, and a chicken manure conveyor is provided at the bottom of the cage module of each layer In my mobile UV irradiation device,
a moving bogie equipped with wheels to reciprocate according to the arrangement direction of the series of cage modules;
an ultraviolet irradiation unit mounted on the moving cart to irradiate ultraviolet rays toward the cage;
a driving means mounted on the moving bogie and having a battery and a motor driven by the battery to drive the moving bogie;
A charging dock disposed on at least one of both ends of the series of cage module arrays to charge the battery of the mobile cart by an external power source when the mobile cart is docked, and
a controller for controlling the operation of the components
including,
The ultraviolet irradiation unit includes one or more ultraviolet irradiation units disposed to face each layer of the cage module,
In the ultraviolet irradiation unit, ultraviolet rays are shielded from diffusion to the upper side of the feeding trough provided on each floor of the cage module and the lower side of the poultry conveyor and irradiated only between the lower side of the feed bin on each floor and the upper side of the poultry conveyor. It is characterized in that a diffusion shielding means is provided.

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According to this preferred feature of the present invention, it further includes a bogie guide for guiding the moving bogie so that the moving bogie can run in parallel with the cage module while maintaining a predetermined interval.

The bogie guide is, for example, provided with a rail on a channel installed horizontally at the bottom of the cage module and a roller mounted on the moving bogie and inserted into the channel of the rail, thereby preventing the moving bogie from departing and guiding the driving stably. can do.

At this time, the moving cart may be controlled to change the driving direction by having limit switches on both sides thereof.

According to another preferred feature of the present invention, the ultraviolet irradiation unit is provided with a plurality of UVC irradiation units that are arranged at intervals up and down to face the portion from the feeding trough to the chicken manure conveyor of each floor of the cage module and irradiate UVC, respectively, , it may be made of at least two that are spaced apart from each other in the horizontal direction (travel direction) on the moving cart.

This makes it possible to double the cumulative UVC irradiation for one driving of the moving cart, thereby shortening the time it takes to kill chicken mites by that much.

Here, each UVC irradiation unit may include an ultraviolet lamp, a UVC filter that transmits only UVC among the ultraviolet rays irradiated from the ultraviolet lamp, and a diffusion shielding means for shielding the irradiated UVC from diffusing up and down the feeding tube.

In addition, the diffusion shielding means may be composed of one shielding tube protruding to surround the UVC filter or two shielding plates each protruding from the top and bottom of the UVC filter, for example, rubber or silicone, etc. It would be preferable to be made of a soft elastic material.

According to another preferred feature of the present invention, the UV irradiation unit is composed of a plurality of units corresponding to the portions from each feeding trough of the cage module to the chicken manure conveyor, and is horizontally spaced apart from the top and bottom to make one run of the moving cart. It is also possible to further increase the cumulative irradiation amount of UVC according to the

On the other hand, the charging dock may be configured as a wired charging method or may be configured as a wireless charging method. Preferably, an external power source connected to the charging dock is appropriately controlled according to whether the mobile cart is docked. It may be better to include more

The power interception means may be configured in various forms, for example, from a power switch that controls the connection of external power to the charging dock, and a docking sensor and a docking sensor that detects the docking of the moving cart with respect to the charging dock. When a predetermined time has elapsed after the docking signal is transmitted, a timer for operating the power switch may be provided.

According to the portable UV irradiation device in the cage for controlling chicken mites according to the present invention, UVC is intensively irradiated to the feed box and air duct of the cage module where chicken mites mainly inhabit, and UVC is directly irradiated to the chickens as much as possible. As it is suppressed, not only the stress on chickens caused by UV irradiation, but also the various side effects that UVC, which has strong sterilization power, have on the living body, are hardly generated. can do it

Therefore, the weight loss of the chickens or the drop in egg-laying rate due to stress are also minimized, so that the poultry farm can be operated stably and efficiently.

In addition, since it does not use pesticides that can adversely affect the human body or the environment, it is possible to produce safe and hygienic eggs and chickens that are not contaminated, which can greatly contribute to improving the reliability of poultry farms.

1 is a partially enlarged side view schematically showing an example of a general cage poultry;
Figure 2 is a graph showing the relationship with the time taken to kill chicken mites according to the UVC irradiation amount;
3 is a photograph showing the state of chicken mites and eggs before and after UVC irradiation, (a) is a photograph of a chicken mite egg, (b) is a photograph of a chicken mite,
4 is a front view showing a mobile UV irradiation device in the cage for controlling chicken mites according to the present invention;
5 is a side view of a mobile UV irradiation device in a cage for controlling chicken mites according to the present invention;
6 is a plan view of the main part of the portable ultraviolet irradiation device in the cage for controlling chicken mites according to the present invention;
7 is a partially exploded perspective view showing an example of an ultraviolet irradiation unit of a mobile ultraviolet irradiation device in a cage for controlling chicken mites according to the present invention;
Figure 8 is an excerpt sectional view of the ultraviolet irradiation unit of the portable ultraviolet irradiation device in the cage for chicken mite control according to the present invention;
Figure 9 is an excerpted perspective view showing another embodiment of the ultraviolet irradiation unit shown in Figure 7;
10 is an excerpted perspective view showing another embodiment of the ultraviolet irradiation unit of the portable ultraviolet irradiation device in the cage for chicken mite control according to the present invention;
11 is a plan view schematically showing another embodiment of the charging dock of the mobile UV irradiation device in the cage for chicken mite control according to the present invention.

The specific features and other advantages of the mobile UV irradiation device in the cage for controlling chicken mites of the present invention will become clearer with the description of the following preferred embodiments with reference to the accompanying drawings.

4 to 6, the mobile ultraviolet irradiation device in the cage for chicken mite control according to the present invention is a moving cart 10 that reciprocates in the left and right directions of the poultry cage module (M), and this moving cart (10) An ultraviolet irradiation unit 20 that is installed in the cage module (M) and irradiates UVC to the portion from the feed bin (G) to the chicken manure conveyor (V) on each floor of the cage module (M), and a driving means for driving the moving cart (10) 30 and the charging dock 40 disposed at at least one end of the cage module M to charge the battery 31 of the driving means 30 to be described later as the moving cart 10 is docked and the above components a controller 50 for controlling the operation.

The moving cart 10 has a driving chamber 11 and a charging chamber 12 in which a motor 32 and a battery 31 of the driving means 30 to be described later are respectively built in. The moving bogie 10 is provided with a plurality of wheels 13 on the bottom surface for easy driving. The wheels 13 are preferably made of rubber tires to minimize slippage while the moving cart 10 is running.

This moving bogie 10 can be driven along the cage module M in a stable state without being separated from the traveling path by the bogie guide 14 . The bogie guide 14 may be configured in various forms, for example, a rail 15 on a channel installed horizontally at the lower end of the cage module M, and inserted into the channel 15a of the rail 15 It may be composed of a rotating roller 16 .

The rail 15 is arranged so that the opening of the channel 15a faces downward, and at least two rollers 16 are provided at an interval for the stable movement of the moving bogie 10 and the moving bogie through the bracket 17 (10) is supported.

The ultraviolet irradiation unit 20 is configured in a long post shape and has a housing 21 fixed vertically to the moving cart 10, and one side of the housing 21 (a side facing the cage module) in its longitudinal direction. It has a plurality of UVC irradiating units 22 arranged to be spaced apart at regular intervals up and down. Each UVC irradiation unit 22 is positioned to face the portion from the plurality of feeding troughs (G) installed horizontally on each floor of the cage module (M) to the chicken manure conveyor (V).

In the housing 21, a plurality of lamp grooves 21a for installing the ultraviolet lamp 23, which will be described later, are formed to be vertically spaced apart from each other.

Each UVC irradiator 22 is accommodated in each lamp groove 21a of the housing 21 as shown in FIGS. 7 and 8 , an ultraviolet lamp 23 for irradiating ultraviolet rays, and the ultraviolet lamp 23 . A UVC filter (24) that transmits only UVC among the UV rays irradiated from the UVC filter (24) and a shielding tube ( 25) can be achieved.

The shielding tube 25 may be preferably composed of, for example, soft rubber or silicone having appropriate elasticity so as not to be easily damaged or deformed when in contact with the feeding tube (G), etc., and can stably support it. It may be fixed to the housing 21 through a frame 26 of a predetermined shape.

Accordingly, in the present invention, the UVC irradiated from the ultraviolet irradiation unit 20 is concentrated only on the feeding tube (G) and the air duct (D) where various bacteria and parasites, including chicken mites, mainly inhabit, and the chickens are accommodated. Cage (C) is not irradiated. Therefore, it becomes possible to reliably eradicate various disease-causing factors, including chicken mites, while hardly generating side effects such as stress induction of chickens due to UV irradiation.

On the other hand, the shielding tube 25 is provided on the upper side of the feed bin (G) and the lower side of the poultry conveyor (V) to prevent UVC irradiated from the ultraviolet lamp 23 from being directly irradiated to the chickens housed in the cage (C). It is to prevent diffusion into the bar, for example, two shielding plates 27 fixed to the housing 21 so as to appropriately protrude from the upper and lower sides of the UVC filter 24, respectively, as shown in FIG. It is free to configure.

The shielding plate 27 is also preferably made of soft rubber or silicone having appropriate elasticity, like the aforementioned shielding tube 25 .

Preferably, in the present invention, two ultraviolet irradiation units 20 are provided so as to be spaced apart along the traveling direction of the moving cart 10 and mounted on the moving cart 10 . This doubles the cumulative irradiation amount of UVC for chicken mites according to one driving of the moving cart 10, so that the chicken mites can be killed within a shorter period of time.

That is, as can be seen from FIG. 2 , the more the cumulative amount of UVC irradiation, the shorter the time it takes to kill the chicken mite. As a result, the cumulative irradiation amount of UVC is greatly increased, and, by repeatedly irradiating UVC at short time intervals, the death of chicken mites is promoted and can be killed within a short period of time.

For this reason, in the present invention, as shown in FIG. 10, the ultraviolet irradiation unit 60 is composed of a plurality of units corresponding to the portion from the feeding trough (G) to the chicken manure conveyor (V) of each layer of the cage module (M). Thus, it may be arranged long in the running direction (horizontal direction) of the moving bogie 10 through the support post 64 .

Each of the ultraviolet irradiation units 60 of this configuration constitutes one UVC irradiation unit. That is, one lamp groove (not shown) is formed in the entire housing 61 to mount one UV lamp (not shown), respectively, and shield the diffusion of UVC on the upper and lower sides of the UVC filter 62 . It may be provided with a shielding plate 63 for each. Here, of course, the shielding plate 63 may be replaced with a shielding tube.

In this case, as UVC is continuously irradiated to the chicken mites according to the driving of the moving bogie 10, the cumulative irradiation amount for one driving of the moving bogie 10 can be further increased, so that the chicken mites can be killed in a faster time. there will be

The driving means 30 includes a battery 31 and a motor 32 driven by the battery 31 . The battery 31 is installed in the charging chamber 12 of the mobile cart 10 . Although the battery 31 has a predetermined current capacity, it is preferable to have at least a degree capable of reciprocating the cage module M once.

Of course, it is natural that the selection is taken in consideration of the size of the poultry farm to be installed or the horizontal length of the cage module (M). Providing on both sides of the cage module (M) can also be a countermeasure.

The motor 32 is installed in the driving chamber 11 of the moving cart 10 . The motor 32 is composed of a motor capable of forward and reverse driving and is controlled by the controller 50 , and is connected to the wheel shaft of the moving bogie 10 through an electric means (not shown) such as a belt or chain.

This motor 32 is provided with first and second limit switches 33 and 34 for changing the running direction on both sides (front and rear of the running direction) of the moving bogie 10, respectively, and the moving bogie ( 10) automatically reciprocates.

Each of the limit switches 33 and 34 is connected to the controller 50, for example, first and second stoppers 35 and 36 provided at both ends of the rail 15 of the bogie guide 14. ) can be operated by contact with That is, when the moving cart 10 travels in a predetermined direction and the limit switch 33 or 34 comes into contact with the stopper 35 or 36 and operates, the controller 50 stops the motor 32 according to the signal. It will drive in the opposite direction.

The charging dock 40 may be configured in a wired charging method or a wireless charging method, and a wired charging method may be preferable to ensure stable charging.

In the illustrated example, a socket 41 is provided in the charging dock 40 in a wired charging method, and one side of the moving cart 10 is selectively connected to the socket 41 of the charging dock 40 to connect the battery 31 ) is provided with a connection terminal 42 for charging.

Power is applied to the charging dock 40 from the outside, and for safety reasons, power is preferably applied only when charging the battery 31 . To this end, the charging dock 40 may be provided together with a power control means for controlling the application of external power depending on whether the moving cart 10 is docked.

The power interception means may be configured in various forms. For example, a power switch (not shown) for intercepting external power to the charging dock 40, and a docking detection sensor 43 for detecting the docking of the moving cart 10 with respect to the charging dock 40, and, The docking detection sensor 43 may be configured as a timer (not shown) that operates the power switch when a predetermined time elapses after detecting the docking.

This is in consideration of the structural characteristics of having to repeatedly connect to the charging dock 40 irrespective of whether or not charging is required when the mobile cart 10 reciprocates, and applies power only when actually charging the battery 31 is required to charge to do

That is, the moving bogie 10 is charged at least once or several times after being charged once in consideration of overall requirements such as the capacity of the battery 31 and the amount of power consumed by the driving of the motor 32 and the mileage of the moving bogie 10 . Since it is a reciprocating bar, power is applied only when a predetermined time has elapsed after docking in consideration of a predetermined time required to change the driving direction.

At this time, when the controller 50 determines that charging is necessary according to various stored information stored therein, it docks in the charging dock 40 and then waits. Recognizing that charging is required, by operating the power switch, external power is applied to the charging dock 40 to proceed with charging.

On the other hand, it goes without saying that the charging dock 40 may be configured in a wireless charging method as schematically shown in FIG. 11 .

In the illustrated example, the charging dock 70 has a charging unit 71 into which the moving bogie 10 can enter, and a coil (not shown) for generating an induced current in the battery 31 installed in the moving bogie 10 . ) is built in.

Accordingly, the balance guide 14 may be appropriately extended toward the charging dock 70 for the entry of the moving cart 10 to the charging unit 71, for example, the moving cart 10 to the ultraviolet irradiation unit 20. A third limit switch 72 for changing the driving direction of the may be provided. The third limit switch 72 may be operated by providing a third stopper 73 in the charging dock 70 .

Although not shown separately, it is preferable that the charging dock 70 of this wireless charging method is configured such that power is selectively applied only when charging the battery 31 like the charging dock 40 of the wired charging method described above. .

The controller 50 is mounted on the moving cart 10 . A predetermined control program is stored in the controller 50 , and various information such as the battery 31 , the motor 32 , and the mileage of the moving cart 10 are input.

The controller 50 reverses the driving direction of the motor 32 according to the signals of the first and second limit switches 33 and 34 to reciprocate the moving cart 10, and based on the input information, the battery 31 ), the mobile cart 10 is placed on standby in the charging docks 40 and 70 by determining the charging time, and when the charging is completed, the mobile cart 10 is driven again.

10: mobile bogie 13: wheel
14: bogie guide 15: rail
16: roller 20, 60: UV irradiation unit
21, 61: housing 22: UVC irradiation part
23: UV lamp 24: UVC filter
25: shielding tube 27, 63: shielding plate
30: driving means 31: battery
32: motor 33, 34: first and second limit switches
40, 70: charging dock 41: socket
42: connection terminal 43: docking detection sensor
50: controller 71: charging part
72: third limit switch M: cage module
C : Cage G : Feeding canister
T : Egg tray D : Air duct
V : chicken manure conveyor

Claims (14)

A series of cage modules in which a plurality of cages containing chickens are arranged horizontally side by side, arranged in one or more tiers, each tier of the cage modules having a feeding trough and an egg carton arranged horizontally along its entire length, , In a mobile UV irradiation device in a cage for controlling chicken mites in a poultry farm equipped with a chicken manure conveyor at the lower part of the cage module of each floor,
a moving bogie equipped with wheels to reciprocate according to the arrangement direction of the series of cage modules;
an ultraviolet irradiation unit mounted on the moving cart to irradiate ultraviolet rays toward the cage;
a driving means mounted on the moving bogie and having a battery and a motor driven by the battery to drive the moving bogie;
A charging dock disposed on at least one of both ends of the series of cage module arrays to charge the battery of the mobile cart by an external power source when the mobile cart is docked, and
a controller for controlling the operation of the components
including,
The ultraviolet irradiation unit includes one or more ultraviolet irradiation units disposed to face each layer of the cage module,
In the ultraviolet irradiation unit, ultraviolet rays are shielded from diffusion to the upper side of the feeding trough provided on each floor of the cage module and the lower side of the poultry conveyor and irradiated only between the lower side of the feed bin on each floor and the upper side of the poultry conveyor. A mobile UV irradiation device in a cage for controlling chicken mites, characterized in that it is provided with a diffusion shielding means. According to claim 1,
Mobile ultraviolet irradiation device in the cage for controlling chicken mites, characterized in that it further comprises a cart guide for guiding the mobile cart to run in parallel with the cage module while maintaining a predetermined distance. 3. The method of claim 2,
The cart guide, a rail on a channel installed horizontally under the cage module, and a roller mounted on the moving cart and inserted into the channel of the rail. investigation device. 4. The method according to any one of claims 1 to 3,
The UV irradiating unit is provided with a plurality of UVC irradiating units arranged at intervals in the top and bottom to face the portion from the feeding trough to the chicken manure conveyor of each floor of the cage module and irradiating each UVC in a horizontal direction to the moving cart. A mobile ultraviolet irradiation device in the cage for controlling chicken mites, characterized in that it consists of at least two spaced apart in the direction of travel. 5. The method of claim 4,
The UVC irradiation unit includes an ultraviolet lamp, a UVC filter that transmits only UVC among the ultraviolet rays irradiated from the ultraviolet lamp, and a diffusion shielding means for shielding the irradiated UVC from diffusing to the upper side of the feeding bin and the lower side of the chicken manure conveyor A mobile ultraviolet irradiation device in the cage for controlling chicken mites, characterized in that. 6. The method of claim 5,
A mobile ultraviolet irradiation device in a cage for controlling chicken mites, characterized in that the diffusion shielding means consists of a shielding tube protruding to surround the UVC filter. 6. The method of claim 5,
The diffusion shielding means is a mobile UV irradiation device in the cage for controlling chicken mites, characterized in that consisting of a shielding plate protruding from the top and bottom of the UVC filter, respectively. According to claim 1,
A mobile UV irradiation device in the cage for controlling chicken mites, characterized in that the diffusion shielding means is made of a soft elastic material. According to claim 1,
The ultraviolet irradiation unit is composed of a plurality of units corresponding to the portion from the feed bin on each floor of the cage module to the chicken manure conveyor, and is horizontally and vertically spaced. UV irradiator. According to claim 1,
Mobile ultraviolet irradiation device in the cage for controlling chicken mites, characterized in that it further comprises a limit switch provided on both sides of the moving cart to change the running direction. According to claim 1,
The charging dock is configured in a wired charging method, and a mobile UV irradiation device in the cage for controlling chicken mites, characterized in that the mobile cart is provided with a terminal for connection with the charging dock. According to claim 1,
A mobile UV irradiation device in the cage for controlling chicken mites, characterized in that the charging dock is configured in a wireless charging method. 13. The method of any one of claims 1, 11 or 12,
Mobile ultraviolet irradiation device in the cage for controlling chicken mites, characterized in that it further comprises a power control means for intercepting the application of external power to the charging dock by detecting whether the moving cart is docked with the charging dock. 14. The method of claim 13,
The power interception means includes a power switch that controls the connection of an external power source to the charging dock, a docking sensor for detecting the docking of the moving cart with respect to the charging dock, and a docking signal from the docking sensor after the delivery A mobile ultraviolet irradiation device in the cage for controlling chicken mites, characterized in that it includes a timer that operates the power switch when a predetermined time has elapsed.

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