JP2015216857A - Honeybee pathogenic organism extermination method and extermination device - Google Patents
Honeybee pathogenic organism extermination method and extermination device Download PDFInfo
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本発明は、ミツバチの病原体を駆除する方法と装置に関する。 The present invention relates to a method and apparatus for controlling bee pathogens.
従来、飼育している。ミツバチが病気に罹った場合日光消毒をしたり薬剤を投与したり焼却処分をしていた。 Traditionally reared. When a honeybee was ill, it was disinfected by sunlight, administered drugs, and incinerated.
地球において環境汚染物質はますます増え続けており、中でも神経を狂わせて害虫を駆除する方法のネオニコチノイド系農薬はミツバチの生態系に対する影響が世界的に問題になっている。その他、生体の遺伝子の根幹を破壊する放射性物質トリチュウム(3H)も核エネルギーの副産物として増加の一途をたどっており、大気中の濃度は数十年前からすると百倍に達しようとしている。
このような環境ホルモン(内分泌攪乱化学物質)と言われる物質によって、生物の免疫力は低下するばかりであり、例にもれずミツバチの病気も西洋ミツバチにおいては、峰群崩壊症候群(CCD)や日本ミツバチにおいては、サックブルードウイルス病(SBV病)や赤リンダ二の被害等、近年新しく発生して問題になっている。
The number of environmental pollutants on the earth continues to increase. Especially, neonicotinoid-based pesticides, which are methods for exterminating pests by insulting nerves, have a global impact on the bee ecosystem. In addition, the radioactive substance Tritium (3H), which destroys the fundamentals of genes in living organisms, is steadily increasing as a by-product of nuclear energy, and its concentration in the atmosphere is about to reach 100 times if several decades ago.
These substances called environmental hormones (endocrine disrupting chemicals) not only reduce the immunity of living organisms, but honey bee diseases are also common in western honey bees, such as ridge group collapse syndrome (CCD) and Japan. In the honey bee, it has recently become a new problem such as sac brood virus disease (SBV disease) and red Linda damage.
今まで日本に於いては、ミツバチの病原体に対する治療方法は抗生物質等を含む薬剤を使用して治療するものが殆どで、チョーク病やフソ病等法廷伝染病は発症地の周囲数キロの範囲で巣箱ごと焼却処分をしていた。 Until now, in Japan, most honeybee pathogens are treated with drugs containing antibiotics, etc. Forensic infectious diseases such as Chalk disease and Fuso disease range within a few kilometers around the affected area. The whole birdhouse was incinerated.
ミツバチの病原体に関する先行技術としては薬剤を使わない方法は殆ど無く、本発明者が出願した特願2013-34145のみである。特願2013-34145は自然界の太陽光線を活用して透過体を介して巣箱内部に取り入れて巣房の育児圏を照射して消毒する方法であったが、治療効果が低く、照射時間も長くかかった。 There is almost no method that does not use a drug as prior art relating to the pathogen of bees, and only Japanese Patent Application No. 2013-34145 filed by the present inventor is available. Japanese Patent Application No. 2013-34145 was a method of disinfection by irradiating the nest's child-rearing area by using natural sunlight to enter the nest box through a transparent body, but the treatment effect was low and the irradiation time was long. It took.
本発明は、ミツバチの巣房と、巣穴と、巣穴に生息するミツバチの幼虫に、殺菌灯の殺菌線を照射することを特徴とするミツバチの病原体駆除方法で、巣房を収納する巣房収納枠体の開口部に、殺菌灯可動用枠体を(密着しても良い)取付け、殺菌灯可動用枠体に殺菌灯を、固定、または、少なくとも上下、左右、前後方向に移動可能に取付けたことを特徴とするミツバチの病原体駆除装置に関する発明である。太陽光線ではオゾン層で吸収されて地上に到達する線量は極微量である紫外線(UV)の中の殺菌線(UV−C)の代わりに光線を遮蔽する枠体の中で殺菌灯を用いて殺菌線を太陽光線に含まれる線量より遥かに強力に、ミツバチの巣房にある巣穴深部までと巣穴に育児されているミツバチの幼虫の体内の病原体にまで照射して病原体を駆除する方法である。 The present invention relates to a honeybee pathogen extermination method characterized by irradiating a bee nest, a burrow, and a bee larvae that inhabit the burrow with a germicidal line of a germicidal lamp. The sterilization lamp movable frame (may be in close contact) is attached to the opening of the cell housing frame, and the sterilization lamp can be fixed to the sterilization lamp movable frame, or at least vertically, horizontally, and back and forth. The invention relates to a bee pathogen extinguishing apparatus, characterized by being attached to a bee. In the case of sunlight, the dose that is absorbed by the ozone layer and reaches the ground is a sterilization lamp in a frame that blocks light instead of sterilization rays (UV-C) in ultraviolet rays (UV). A method to disinfect pathogens by irradiating germicide rays to the deepest burrows in the honeybee vesicles and to the pathogens in the larvae of honeybees bred in the burrows, far stronger than the dose contained in sunlight. It is.
人や牛や鶏等体格の大きな生物には、200nmから300nmと波長の短い殺菌線は体の深部までの照射は困難であり、体の表面近くの組織によって吸収されてしまうが、本発明のミツバチの病原体を駆除する方法と装置を用いると、体長数ミリのミツバチの幼虫には体内深部までの照射が可能で、巣房全体とミツバチの幼虫の体内に存在する病原体を死滅又は不活化することが可能になった。 For organisms with large physiques such as humans, cows and chickens, germicidal lines having a short wavelength of 200 nm to 300 nm are difficult to irradiate deep into the body and are absorbed by tissues near the surface of the body. Using a method and device to eliminate bee pathogens, several millimeter-long honey bee larvae can be irradiated deep into the body, killing or inactivating pathogens present in the entire nest and the bee larvae. It became possible.
本発明は真夏の晴れた日の直射日光に含まれる殺菌線と比較して、例えば出力15W距離50cmからの照射で1600倍位も殺菌効果がある殺菌灯の殺菌線をミツバチの幼虫や巣穴や巣房全体に近距離から直接照射すると、ミツバチの幼虫の体内に介在する病原体まで殺菌線が到達し、ミツバチの幼虫の体内の病原体までも死滅又は不活化し感染が止まる事が実証できた。巣穴で育児されている幼虫や巣穴や巣房全体に直接殺菌灯の殺菌線を照射したところ、罫病群は正常群に復帰した。 In the present invention, the germicidal line of a germicidal lamp, which has a germicidal effect as much as 1600 times when irradiated from a distance of 50 cm at an output of 15 W, is compared with a germicidal line contained in direct sunlight on a sunny day in midsummer. When irradiating the entire body and the nest directly from a short distance, the germicidal line reaches the pathogens intervening in the honeybee larvae, and the pathogens in the honeybee larvae are also killed or inactivated to stop the infection. . When the larvae nurtured in the burrow, the burrow, and the entire nest were irradiated directly with the germicidal line of the germicidal lamp, the ruled disease group returned to the normal group.
殺菌灯から発せられる殺菌線は巣穴の深部や巣穴に生息する数ミリの体長のミツバチの幼虫の体内にまで照射可能であり、幼虫の体内や巣房で増殖して被害をもたらす病原体の大きさは、菌類では数マイクロメートルであり、また、ウイルスは数ナノメートルと非常に小さく、殺菌線照射量をコントロールすることで、ミツバチの幼虫は生かしたまま病原体のみを消滅させることも可能である。 The germicidal line emitted from the germicidal lamp can irradiate deep into the burrow or into the body of a few millimeter long bee larvae that inhabit the burrow. The size is several micrometers for fungi, and the virus is very small, a few nanometers. By controlling the amount of germicidal radiation, it is possible to eliminate only the pathogen while keeping the bee larvae alive. is there.
効果的な具体例としては、巣房収納枠体の中に収納した巣房の育児圏部分のみと殺菌灯の間に遮蔽物を設置し、殺菌灯可動枠体に設置した殺菌灯を、上下や左右、必要によっては、前後に可動させ、育児圏以外の部分に付着している病原体のみを完全(10分間以上)に駆除した後、遮蔽物を取り除き、再度ミツバチの幼虫は死に至らないが、該ミツバチ幼虫の体内の病原体は駆除する適正な殺菌線量(新しい乾球の10W殺菌灯で巣房と殺菌灯の距離1cmから2cm位、時間は10秒位)を、巣房全体に照射して該ミツバチの幼虫は生かしたままの治療方法が、その後の群れの復帰が順調に行った。ミツバチの幼虫まで死に至らしめる殺菌線量を照射すると、巣穴底部にある弱日齢の小さな幼虫が、何時までも、そのまま残り女王の産卵活動が停止し暫く花粉収集が停止してしまうことが懸念される。 As an effective example, a shield is installed between the sterilization lamp part of the nesting area of the nest housed in the nest storage frame and the sterilization lamp. Although it can be moved back and forth, as needed, to move back and forth, and after removing only the pathogen attached to parts other than the child-rearing zone (over 10 minutes), the shield is removed and the bee larvae do not die again. Irradiate the entire nest with an appropriate sterilizing dose (with a new dry bulb 10W sterilization lamp, the distance from the centriole to the sterilization lamp is about 1 to 2 cm, and the time is about 10 seconds). Thus, the treatment method with the honeybee larvae kept alive, and the subsequent return of the swarm went smoothly. Concerns that when a sterilizing dose that causes death to the bee larvae is irradiated, the small-aged young larvae at the bottom of the burrow will remain forever and the queen's spawning activity will stop and the pollen collection will stop for a while. Is done.
殺菌線を浴びた生物やウイルスは、遺伝子の中のチミンやリボゾームの中のウラシルを破壊される作用があることが解明されており、病原体に殺菌線特に波長260nm付近の光線を照射すると病原体の駆除効果は高い。 It has been clarified that organisms and viruses that have been exposed to germicidal radiation have the effect of destroying thymine in genes and uracil in ribosomes. The removal effect is high.
殺菌線照射線量は距離の二乗に逆比例するので病原体との距離は、近いほど病原体駆除率は高くなる。従って、出来るだけ近距離からの照射方法が効果は高く時間の短縮も計れる。 Since the sterilizing radiation dose is inversely proportional to the square of the distance, the closer to the pathogen, the higher the pathogen extinction rate. Therefore, the irradiation method from a short distance as much as possible is highly effective and can shorten the time.
図1は、発明の実施形態を示す一例の本装置の全体斜視図であって、内部構造を説明するために一部切り開いた図である。
図1に図示する如く殺菌灯可動用枠体1の上部に殺菌灯7を吊上げて、左右に動かすことの可能な溝殺菌灯吊上用溝3を設け、殺菌灯可動用枠体1の内部にある殺菌灯7を殺菌灯吊下金具9と、殺菌灯可動用取手4で外部から、殺菌線可動用枠体1の内部に具備する殺菌灯7を固定、若しくは、少なくとも上下、左右、前後方向に移動可能とした。巣房収納枠体2は巣枠5に固着された巣房8の一例を収納する枠体で、殺菌灯7から発せられる図示省略の殺菌線が、巣房8片面全体に照射可能とし、外部へ漏れるのを防止する枠体である。符号6は殺菌灯7点灯用の電源を図示している。
FIG. 1 is an overall perspective view of an example of the present apparatus showing an embodiment of the invention, and is a partially cut away view for explaining the internal structure.
As shown in FIG. 1, a sterilizing
図2は、巣穴17で、出産直後の幼虫が育児されているミツバチの出産直後の幼虫12と、3日齢位から8日齢位までの幼虫13、14、15の成長過程と、蛹16への効果的な殺菌線照射角度を表示した図である。符号10は殺菌灯7からの殺菌線方向を、符号11は太陽光線を透過体を介して巣箱へ取り入れ育児圏を照射した時の、従来の太陽光線の照射角度と、太陽光線取り入れ時の光線方向を示している。符号9は、図1では図示できなかた殺菌灯吊下金具を図示している。
Fig. 2 shows the growth process of larvae 12 immediately after birth of honeybees,
本発明によれば、本装置を利用することで巣房や巣穴の中の幼虫の体内で増殖する病原体に殺菌灯の殺菌線を照射することで、従来の太陽光線を、透過体を介して巣房の育児圏に照射する方法よりもはるかに効果的に当病原体を駆除することが出来た。また、従来の薬剤投与方法では病原体の種類を解明してその病原体に効果のある薬剤を投与する必要があったが本装置は殆どの病原体に対して治療効果が認められた。 According to the present invention, by using this device, the pathogen that grows in the body of the larva in the nest and the burrow is irradiated with the germicidal line of the germicidal lamp, so that the conventional sunlight can be transmitted through the transmission body. It was possible to get rid of the pathogen much more effectively than the method of irradiating the child-rearing area of the nest. Further, in the conventional drug administration method, it is necessary to elucidate the type of pathogen and administer a drug effective against the pathogen, but this apparatus has been found to have a therapeutic effect on most pathogens.
巣房の育児圏で育児されている、幼虫の体内で増殖して害を及ぼす病原体にまで殺菌線を照射して殺滅することが可能で健康なミツバチ群へと復帰させることが可能になった。 It is possible to return to a healthy bee group that can be killed by irradiating germicidal lines to pathogens that grow in the body of larvae and cause harm in the larvae's parenting area It was.
1 殺菌灯可動用枠体
2 巣房収納枠体
3 殺菌灯吊上用溝
4 殺菌灯可動用取手
5 巣枠
6 電源
7 殺菌灯
8 巣房
9 殺菌灯吊下金具
10 殺菌灯からの殺菌線方向
11 太陽光線取り入れ時の光線方向
12 出産直後の幼虫
13 3日齢位の幼虫
14 5日齢位の幼虫
15 8日齢位の幼虫
16 蛹
17 巣穴
1 Sterilization lamp
3 Sterilizing
5 Nest
7 germicidal lamp
8 Nest
9 Sterilizing
11 Ray direction when taking in sunlight
12 Larva just after birth
13 3 days
15 8-day-
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