JP2008072922A5 - - Google Patents

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JP2008072922A5
JP2008072922A5 JP2006253728A JP2006253728A JP2008072922A5 JP 2008072922 A5 JP2008072922 A5 JP 2008072922A5 JP 2006253728 A JP2006253728 A JP 2006253728A JP 2006253728 A JP2006253728 A JP 2006253728A JP 2008072922 A5 JP2008072922 A5 JP 2008072922A5
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自動対流発生装置Automatic convection generator

本発明は自然の流入水圧を利用して取り込んだ表面水を水底周辺へ下降させて表面水と底水の温度差により対流を起こす自動対流発生装置に関するものである。The present invention relates to an automatic convection generating device that causes surface water taken in using natural inflow water pressure to descend to the vicinity of the bottom of the water and causes convection due to a temperature difference between the surface water and the bottom water.

生物の育成には必ず酸素および栄養物が必要である。近年、建築資材用砂利採取後の凹地において、通常は自然の潮流によって水の入れ替りがあり、酸素補給や栄養補給がなされているが、砂利採取後の凹地が深すぎるので、自然潮流のみでは潮流の影響を受けられず、酸素補給がなされずに無酸素状態が発生して、生物の死滅、発育不全が起こっている。  Oxygen and nutrients are necessary for the growth of living things. In recent years, depressions after gravel collection for building materials are usually replaced by water due to natural tides, and supplemental oxygen and nutrition are provided. An anoxia occurs without being supplemented with oxygen, and the organism is killed and stunted.

底層部にある貧酸素水に表面水に含まれる植物プランクトンや大気中の二酸化炭素および酸素の吸収された暖かい表面水を潮力、波力などの自然のエネルギーを利用して下降さ せて、腐敗滞留した硫化水素を含んだ水を入れ替えて、海藻類等の生物生産の増大が必要とされている。Carbon dioxide and oxygen tidal the absorbed warm surface water of the bottom layer portion in phytoplankton and air contained in the surface water anoxic water in, is lowered by utilizing the natural energy such as wave power, There is a need to increase the production of seaweed and other biological products by replacing water containing hydrogen sulfide that has stayed spoiled.

また、魚貝類の養殖カゴ吊下げによる海流潮流不足や養殖魚貝類の残置餌による腐敗、酸素不足硫化水素発生による魚貝類の死滅や発育不全の問題を解決するためには、底水の交換および海流潮流がどうしても持続的に必要である。  In addition, in order to solve the problems of ocean current tide due to suspension of cultured shells of fish and shellfish, corruption due to residual food of cultured fish shellfish, and death and growth failure of fish and shellfish due to generation of oxygen-deficient hydrogen sulfide, Ocean currents are absolutely necessary.

生物の発育生育には、必ず酸素が必要であるが、その酸素補給のために小さな水槽や比較的浅い貯水槽等では、魚貝類の酸素補給用のエアーポンプを使用しての水底放気での対流発生装置がある。  Oxygen is always required for the growth and growth of living organisms. However, in small aquariums and relatively shallow water tanks for the supplementation of oxygen, the bottom of the water can be ventilated using an air pump for supplementing fish and shellfish. There is a convection generator.

また水面上付近に施された動力水車を回転させての水流発生および酸素補給装置がある。  There is also a water flow generation and oxygen replenishing device by rotating a power turbine provided near the water surface.

またポンプで吸い上げた水を高い所より落差による水泡を作っての、酸素補給する方法がある。  There is also a method of supplying oxygen by making water bubbles sucked up by a pump from a high place.

また特平6−72594号「海水等の汲上装置」公報には、波を利用した波力ポンプが開示されているが、これは汲み上げポンプで垂下する通水管によって上昇流を利用する ものである。上記、波力ポンプと太陽光発電、風力発電とを組合わせた特開2001−29988号「浮遊渚を利用した水循環装置」や特開2001−129589号「浮遊渚を利用した水循環とアオコや油回収装置」に見られる底水を、波力や太陽光発電、風力発電等動力源利用での汲み上げ循環装置が提供されている。また、上記に見られる表面水附近への放水での浄化、酸素補給装置等が開示されている。
特公平6−72594号公報 特開2001−29988号公報 特開2001−129589号公報
Further, Japanese "scooping device such as seawater" JP fairness No. 6-72594, those although wave power pump utilizing wave is disclosed, which is to use the upward flow by the water pipe extending downwardly in pumping pump is there. Japanese Patent Application Laid-Open No. 2001-29988 “Water Circulation Device Using Floating Soot” Combined with Wave Pump, Solar Power Generation, and Wind Power Generation, and Japanese Patent Application Laid-Open No. 2001-129589 “Water Circulation Using Floating Spear and Blue Water and Oil The bottom water found in the “recovery device” is being pumped and circulated using a power source such as wave power, solar power generation, wind power generation and the like. Moreover, the purification by the water discharge to the surface water vicinity seen above, an oxygen replenishment apparatus, etc. are disclosed.
Japanese Patent Publication No. 6-72594 JP 2001-29988 A JP 2001-129589 A

しかし、上記のような酸素補給装置は、いずれも動力源を利用しての酸素補給装置である。また、底水の汲み上げ方式では少量しか浄化することができず、多量の滞留水を浄化するには無理がある。また、何十メートルもある深い海底附近へエアーを送り込むには、大きな動力源が必要である。また、浅い所で水を撹拌しても、深い海底の水を撹拌することは不可能に近い。本発明は、上記問題点を解決すべくなされたもので、外部動力を必要とすることなく簡便に酸素を供給することができる自動対流発生装置を提供することを目的とするものである。  However, all of the oxygen replenishing devices as described above are oxygen replenishing devices using a power source. Also, the bottom water pumping method can purify only a small amount, and it is impossible to purify a large amount of accumulated water. In addition, a large power source is required to send air to the deep sea floor that is tens of meters deep. Moreover, even if water is stirred in a shallow place, it is almost impossible to stir deep seabed water. The present invention has been made to solve the above-described problems, and an object of the present invention is to provide an automatic convection generator that can easily supply oxygen without requiring external power.

周囲に浮力体を取着けた箱体の底部および側部には一方向のみの流入を可能にした、逆止弁を装備し、また、底部には海底に垂下する下降流通水管を取着けたことを特徴とする自動対流発生装置である。The bottom and sides of the box body wearing preparative buoyant body around to allow for inflow of only one direction, equipped with a check valve, also, the bottom wear preparative downflow through the water pipe extending downward to the seabed This is an automatic convection generator.

本発明によれば、外部動力を要することなく表面水を海底に自然のエネルギーで下降さ せて、海水の対流を起こすことができるので、容易に酸素補給でき、生物復活ができるようになった。その結果としては、ハマチ等養殖魚貝類の残置餌による海底での腐敗水による生物死滅および養殖魚貝類の酸素不足による発育不足や死滅するのを解消することができる。
また、アコヤ貝、ホタテ貝等養殖魚貝類の養殖カゴ吊下げによる海流不足を海水を対流させることにより、酸素および栄養を補給することができ、死滅防止、発育促進することができる。
According to the present invention, the surface water is lowered by natural energy on the seabed without requiring external power, it is possible to cause convection of sea water, easily supplemental oxygen, it has enabled organism revival . As a result, it is possible to eliminate the death of organisms due to septic water on the sea floor due to the residual feed of cultured fish and shellfish such as yellowtail, and the lack of growth and death due to lack of oxygen in the cultured fish and shellfish.
In addition, oxygen and nutrients can be replenished by preventing the current flow by suspending the sea current caused by suspending the cultured cage of cultured fish shellfish such as pearl oysters and scallops, thereby preventing death and promoting growth.

本発明による自動対流発生装置によれば、海や大きな湖等の動力源の取り難い所でも、また何十メートルもの深い所でも使用ができる。  The automatic convection generator according to the present invention can be used in places where it is difficult to obtain a power source such as the sea or a large lake, or in places as deep as tens of meters.

どこの場所でも実施できるように、箱体に流入水を得るために、側部に掛る流水圧および箱体底面に掛る揺らぎによる該箱体の浮き上り時、また、反対側の沈下時に生じる水圧により流入を図るものである。それと箱体を乗り越えた波での流入水を利用し、どちらの方向からの流入水も利用できるよう、実現したものである。  In order to obtain inflow water in the box so that it can be carried out anywhere, the water pressure generated when the box floats due to the flowing water pressure on the side and the fluctuation on the bottom of the box, or when the box sinks on the opposite side Inflow is intended. It is realized by using the inflow water from the wave that has passed over the box and using the inflow water from either direction.

図1は本発明による自動対流発生装置の概要を示す側面図である。同図において、1は自動対流発生装置で該自動対流発生装置1は、箱体2,浮力体3,下降流通水管4とから構成されている。箱体2の底部および側部には、それぞれ複数の逆止弁5,6が装備されており、該箱体2が波の上下動により揺動した時に、逆止弁5,5が開閉し、流入水10を箱体2に取り込むものである。
浮力体3は上記箱体2の周囲に取着けて、該箱体2が表面水7より沈下しないようにしたものである。そして、潮流8を受けた際は、箱体2側部に装着した一方向のみの流入を可能にした逆止弁6が開閉し、当箱体2に流入水10を取り込む。
また、上記箱体2の周囲に波9が発生した場合、波9は箱体2側縁を乗り越え、箱体2に流入水10を取り込む。
FIG. 1 is a side view showing an outline of an automatic convection generator according to the present invention. In the figure, 1 is the automatic convection generator 1 automatically convection generator, the box body 2, the buoyant body 3, and a downflow water passage pipe 4. A plurality of check valves 5 and 6 are provided at the bottom and the side of the box 2, respectively, and when the box 2 is swung by the vertical movement of the wave, the check valves 5 and 5 open and close. Inflow water 10 is taken into box 2.
The buoyancy body 3 is attached around the box 2 so that the box 2 does not sink from the surface water 7. And when the tidal current 8 is received, the check valve 6 attached to the side of the box body 2 and allowing inflow in only one direction opens and closes, and the inflow water 10 is taken into the box body 2.
Further, when the wave 9 is generated around the box body 2, the wave 9 gets over the side edge of the box body 2 and takes in the inflow water 10 into the box body 2.

4は下降流通水管で、該下降流通水管4は箱体2底部に取着けられており、海底14の凹部15に垂下されている。13は錨で、該錨13は、上記箱体2に固着され、海底14に固定することにより、箱体2を定置させるものである。なお、本実施例では、錨13は一基しか図示していないが、複数基で箱体2を固定することが望ましい。
上記のようにして、箱体2に取り込んだ流入水10は、該箱体2周囲の表面水7より上昇する。しかし、該流入水10は逆止弁5,6により箱体2より漏れ出ることはない。
4 is a downflow through the water pipe, the downflow water passage pipe 4 is worn taken to box 2 bottom, it is suspended in the recess 15 of the seabed 14. Reference numeral 13 denotes a ridge, and the ridge 13 is fixed to the box body 2 and fixed to the seabed 14 to place the box body 2 in place. In the present embodiment, only one ridge 13 is shown, but it is desirable to fix the box 2 with a plurality of ridges.
As described above, the inflow water 10 taken into the box body 2 rises from the surface water 7 around the box body 2. However, the inflowing water 10 does not leak from the box 2 by the check valves 5 and 6.

箱体2の底面に施した逆止弁5で箱体2の上下の揺らぎにより、流入水10を取り込む。箱体2の揺らぎが起こるのは、箱体2の底辺の一方が波の押上げの力で浮き上り、反対側が沈下することによって、揺らぎが起こる。逆止弁5に押上げの水圧によって、箱体2に流入水10を得る。反対側の逆止弁5が沈下することによる水圧によって、箱体2に流入水10が取り込まれる。しかし、該流入水10は逆止弁5,6により箱体2より漏れ出ることはない。  The inflowing water 10 is taken in by the check valve 5 provided on the bottom surface of the box body 2 by the vertical fluctuation of the box body 2. The fluctuation of the box body 2 occurs when one of the bottom sides of the box body 2 is lifted by the force of pushing up the waves and the other side sinks. Inflow water 10 is obtained in the box body 2 by the water pressure pushed up by the check valve 5. The inflowing water 10 is taken into the box body 2 by the water pressure generated when the check valve 5 on the opposite side sinks. However, the inflowing water 10 does not leak from the box 2 by the check valves 5 and 6.

箱体2の側部に施した逆止弁6に掛る潮流8の水圧で箱体2に流入水10が取り込まれ、水面が上昇する。箱体2は海底15の錨13により固定することによって、潮流8の水圧を利用できる。潮流8の水圧とは、例えば、水流のある川の中へ小石を置くと、小石の所で、川の表面水の盛り上がりを見ることができる。海においては、潮流8であり、これが利用する潮流8の水圧である。  The inflowing water 10 is taken into the box 2 by the water pressure of the tidal current 8 applied to the check valve 6 provided on the side of the box 2, and the water surface rises. The box 2 can be used with the water pressure of the tidal current 8 by being fixed by the anchor 13 of the seabed 15. The water pressure of the tide 8 is, for example, when a pebble is placed in a river with a water flow, the rise of the surface water of the river can be seen at the pebble. In the sea, it is the tidal current 8, which is the water pressure of the tidal current 8 used.

箱体2に取着けた下降流通水管4を砂利採取前の海底14よりも深い砂利採取後の海底14の凹地15の附近に垂下するよう設置すると、箱体2内に取り込まれた流入水10が下降流通水管4により、海底14の凹地15に供給される。流入水10は、周囲の表面水7を加圧して表面側水圧11となるために、パスカルの法則により流出するものである。箱体2に取り込まれた流入水10は、表面水7の水であるため、暖かい水である。
この暖かい水を凹地15周辺に放水することによって、凹地15の滞留した水は温度が低いため、水底で表面側水圧11によって放水された水は温かいので、上昇する。水底で放水されたのが少量の暖かい水であっても対流12が起こり、その対流12に巻き込んで周囲の滞留水も上昇させて、大きな対流12ができて、滞留水も上方へ移動させるものである。
When the downflow water passage tube 4 wearing collected in the box body 2 is installed so as to droop in the vicinity of the depression 15 of the submarine 14 after deep gravel than seabed 14 before gravel, influent taken into box body 2 10 by downflow through the water pipe 4, is supplied to the depression 15 of the seabed 14. The inflowing water 10 pressurizes the surrounding surface water 7 to become the surface side water pressure 11, and therefore flows out according to Pascal's law. Since the inflowing water 10 taken into the box 2 is the surface water 7, it is warm water.
By discharging this warm water around the depression 15, the water staying in the depression 15 has a low temperature, and the water discharged by the surface-side water pressure 11 at the bottom of the water is warm and rises. Even if a small amount of warm water is discharged at the bottom of the water, convection 12 occurs, and the surrounding stagnation water rises by entraining the convection 12 to form large convection 12 and the stagnation water also moves upward. It is.

図2は、図1中Aにおける下降流通水管4の水圧分布を示す要部拡大説明図である。
周囲より加わる水圧16と、下降流通水管4の内部に加わる海底側の水圧16は同じであるが、水面側の水圧11は、周囲水圧16に箱体2に流入した流入水10の水圧が加わるため、圧力の低い海底側水圧16の方へ移動する。どんなに深いところでも、常に上記の水圧の配置になるために、下降流通水管4の潰れは起こらずに、海底側に通水送水できる。
Figure 2 is an enlarged explanatory view showing the pressure distribution of the downflow water passage tube 4 in the Figure 1 A.
Hydrostatic 16 applied from the surrounding, although water pressure 16 undersea side applied to the inside of the downflow water passage pipe 4 is the same, the water pressure 11 of the water side pressure of the inflow water 10 that has flowed around the water pressure 16 on the box 2 In order to add, it moves toward the seabed side water pressure 16 where the pressure is low. No matter how deep, in order to always be located above the water pressure, the collapse is not occur downflow water passage tube 4, it can be passed through water to the seabed side.

図3は、図1中Bにおける下降流通水管4の水圧分布を示す要部拡大説明図である。
下降流通水管4出口の周囲水圧16よりも下降流通水管4内部の水圧11はどの深さであっても、常に周囲水圧16に流入水10の圧力が加わるため、圧力の低い海底側水圧16の方へ放水することができる。
上記のとおり、本発明により海底14の凹地15の酸素補給あるいは、滞留水の入れ替えが、外部動力を要することなく、持続的に容易に行なえるものである。
Figure 3 is an enlarged explanatory view showing the pressure distribution of the downflow water passage tube 4 in the FIG. 1 B.
Even downflow water passage pipe 4 downflow water passage tube 4 inside the water pressure 11 what depth than the surrounding water pressure 16 of the outlet, because it is always applied the pressure of the incoming water 10 surrounding water pressure 16, a lower seabed side pressure of the pressure Water can be discharged toward the direction of 16.
As described above, according to the present invention, the oxygen replenishment of the depression 15 of the seabed 14 or the replacement of the accumulated water can be easily and continuously performed without requiring external power.

水流のある川の中へ入ると川上からの水流で押される力を感じることができる。又、足When you enter a river with water current, you can feel the force pushed by the water from the upstream. Foot のところで表面水の盛り上りが見られる。そこで水流のある川の中で上流に向ってパイプThere is a rise in surface water. Therefore, the pipe goes upstream in the river with water flow の口へ水流圧を受けるように設置すると反対側のパイプの口より水が出た。その水圧がどWhen it was installed to receive water flow pressure, water came out from the mouth of the pipe on the opposite side. The water pressure is の程度であるかを試した。水流の速さが1秒間に約1メートルの場合、パイプの内側の水I tried to see if it was the degree. If the water flow is about 1 meter per second, the water inside the pipe 位が水の取込口附近の周囲の表面の水位より約10ミリ上昇した。The position rose about 10 mm from the water level on the surrounding surface near the water intake.

次に水深のある水中へ下降流通水管を垂下させて、実際に水底へ通水送水することがでNext, it is possible to suspend the descending water pipe into deep water and actually feed water to the bottom of the water. きるか試験をしたところ、下記の数値を得ることができた。2リットルの容器に下降流通As a result of testing, it was possible to obtain the following numerical values. Down flow into 2 liter containers 水管を接続して、水底に垂下された長さ1メートル、直径14ミリの下降流通水管より放Connect a water pipe and release it from a down-flowing water pipe with a length of 1 meter and a diameter of 14 mm suspended from the bottom of the water. 水した場合、容器内の水位と周囲の水面と同じ水位になるのが約18秒かかった。次に直In the case of water, it took about 18 seconds for the water level in the container to reach the same level as the surrounding water surface. Next 径16ミリの同じ長さの下降流通水管で約9秒かかり、直径22ミリの同じ長さでは約5It takes about 9 seconds with a descending water pipe of the same length of 16 mm in diameter, and about 5 for the same length of 22 mm in diameter. 秒であった。上記から解ったことは垂下させる下降流通水管の直径を太くすることでよりSecond. What I understood from the above is that by increasing the diameter of the descending water pipe 早く通水送水できることが解った。I understood that I could pass water quickly.

次に下降流通水管を直径16ミリで5メートルの長さに変えて試験をしたところ、周囲Next, when the test was conducted by changing the descending water pipe to a length of 5 meters with a diameter of 16 mm, の水面と容器内の水位が同じ水位になるのが約16秒かかり、又、直径22ミリで5メーIt takes about 16 seconds for the water level in the container and the water level in the container to be the same, and 5 meters with a diameter of 22 mm. トルの場合は約7秒であった。以上から解ったのが下降流通水管の長さが長くなると、下In the case of Torr, it was about 7 seconds. As can be seen from the above, when the length of the descending circulation water pipe becomes longer, 降流通水管と水の摩擦で水流の時間が長くなることが解った。深い水深であっても垂下さIt was found that the water flow time was prolonged due to friction between the downflow water pipe and water. Drooping even at deep water depths せる下降流通水管の直径を太くして摩擦を減らすことにより、水底への通水送水を早くすReduce the friction by increasing the diameter of the down-flowing water pipe, thereby speeding up water flow to the bottom of the water. ることができた。I was able to.

又、1メートルの下降流通水管も5メートルの下降流通水管も通水送水が終わった時点In addition, when 1 meter descending water pipe and 5 meter descending water pipe have finished passing water. で周囲の表面水の水位と容器内の水位は同じであった。下降流通水管が長くなって、水底The water level in the surrounding surface and the water level in the container were the same. The descending circulation water pipe becomes longer and the bottom of the water 迄が深くなり、水底での水圧が高くなっても容器内の水位は周囲の表面水より高くはならThe water level in the container should be higher than the surrounding surface water even when the water pressure at the bottom of the water becomes higher. ず一定であり、水深が深くなってもそそぎ込んだ水の全量を水底より通水送水でき、容器Even if the water depth is deep, the entire amount of the poured water can be fed from the bottom of the water 内と周囲の表面水と水位は同じになった。The surface water and water level in and around were the same.

上記でも解ったのは下降流通水管が長くなっても下降通水が終わった後の容器内の水位The above also revealed that the water level in the container after the descending water flow was finished even if the descending circulating water pipe was long と周囲の水位は常に一定であり、高い位置での保持はできなかった。たとえば、一滴の水The surrounding water level was always constant and could not be held at a high position. For example, a drop of water さえも高い位置での保持はできないのが解った。ということは本発明の箱体の側面に掛るEven the high position was not able to be held. That means that it is on the side of the box of the present invention. 水流圧が箱体内に流れ込むだけの水流圧が一滴の水の水圧よりも高ければ、箱体内に流れIf the water pressure that allows the water pressure to flow into the box is higher than the water pressure of a drop of water, it will flow into the box. 込み箱体内の水位を周囲の表面水の水位より高い位置での保持することができず、垂下さThe water level in the inner box cannot be maintained at a position higher than the water level of the surrounding surface water. れた下降流通水管の水底附近の開口部に伝わり通水送水されるのが解った。It was found that water was transferred to the opening near the bottom of the down-flowing water pipe.

しかし、下降流通水管を接続した2リットルの容器が筒状のタテ型であったため、最初However, since the 2 liter container connected to the descending water pipe was a cylindrical vertical type, の水が多い時は急速に水位が下ったが、容器内の水位が低くなるにつれて水位の下り方がThe water level dropped rapidly when there was a lot of water, but as the water level in the container decreased, 少しゆるやかになった。そこで解ったことは、容器内の水位が高く圧力が高い程、下降流It became a little gentle. It was found that the higher the water level in the vessel and the higher the pressure, 通水管より通水送水が早くできることが解った。It was found that water could be delivered faster than water pipes.

しかし、下降流通水管を太くすると、容器内の下り方の変化をあまり感じなくなった。However, when the descending circulation water pipe was made thicker, the change in the downward direction in the container became less felt. そこで解ったことは下降流通水管の直径の面積を大きくすることによって、下降流通水管What we found was that by increasing the area of the diameter of the downflow water pipe, the downflow water pipe と水との摩擦抵抗が減って、より早く多くの水を下降流通水送水できることが解った。又It was found that the frictional resistance between water and water can be reduced, so that more water can be sent down the water. or 、たとえば、バケツ一杯の水を池の水面に撒くと瞬時に周囲の表面水と同水位になる。そFor example, when a bucket full of water is spread on the surface of a pond, the water level is instantaneously equal to that of the surrounding surface water. So れは下降流通水管と水との摩擦がないために、水面下に水圧が掛って瞬時に同水位になるSince there is no friction between the descending water pipe and the water, water pressure is applied below the surface of the water and the water level is instantaneously reached. のである。それからも解るように、細い下降流通水管にバケツ一杯の水を注ぐと通水送水It is. As you can see, if you pour a bucket of water into a narrow down-flow pipe, に時間が掛るけれど、たとえば、下降流通水管の太さをバケツの直径と同じにするか直径For example, the diameter of the descending water pipe should be the same as the diameter of the bucket or the diameter を2倍3倍とすれば瞬時に周囲の表面水位と下降流通水管の水位は同水位となるのが解っIt is understood that the water level of the surrounding surface water level and the water level of the descending circulation water pipe will instantaneously become the same water level if it is made 2 times 3 times. た。It was.

結論として本発明による箱体内の逆止弁より流入した水圧、又は箱体の側縁を乗り越えIn conclusion, the water pressure flowing in from the check valve in the box according to the present invention, or over the side edge of the box た水の水圧が箱体より垂下された下降流通水管の水底附近の開口部に伝わり、流入水が水The water pressure is transferred to the opening near the bottom of the down-flowing water pipe that hangs down from the box. 底の開口部附近へ通水送水できることが解った。又、流入水はどんなに少量であっても箱It was found that water could be passed near the bottom opening. Also, no matter how small the influent water is, 体内に周囲表面水より高い位置での水位は保持できず水底附近の開口部より通水送水できThe body cannot maintain the water level higher than the surrounding surface water and can pass water through the opening near the bottom of the water. る。ということは箱体側部の逆止弁に掛った水流圧は箱体内より水圧が高いため逆止弁よThe This means that the water pressure applied to the check valve on the side of the box is higher than that in the box, so check valve り箱体内に流入水が流入し、その流入水が箱体内の水圧を上げてその水圧だけで水底附近Inflow water flows into the box, and the inflowing water raises the water pressure inside the box, so that only the water pressure near the bottom の開口部より通水送水されるのである。下降流通水管の面積を逆止弁の流入水開口部面積Water is passed through the opening of the water. Inflow water opening area of check valve より大きくすれば箱体部に加わる水流圧をそのまま水底附近の開口部に瞬時に伝えることIf it is larger, the water flow pressure applied to the box can be instantaneously transmitted to the opening near the bottom. ができて、流入水の全量を水底の開口部より通水送水できることが解った。そして、それAs a result, it was found that the entire amount of influent water can be passed through the opening at the bottom of the water. And it は下降流通水管を太くすることによってどんなに深い水底へも瞬時に水底の開口部より流Can flow from the bottom opening to the deepest water bottom instantly by making the descending water pipe thick. 入した量だけ通水送水できることが解った。It turns out that only the amount entered can be passed.

本発明による、自動対流装置は、カゴ吊下げ方式による魚貝類養殖の水流不足解消による酸素補給および栄養補給やハマチ養殖等の餌の残置により海底の腐敗による無酸素状態および水深のある水底の滞留水による生物死滅防止発育促進に適用することができる。According to the present invention, the automatic convection apparatus is provided with an oxygen-free state due to the lack of water flow in the shellfish culture by the cage suspension method and the retention of the anaerobic state and depth of the bottom due to the decay of the seabed due to the remaining food such as nutrition supplementation and hamachi culture. It can be applied to the growth promotion of water death prevention.

本発明による自動対流発生装置を設置した状態を示す概略説明図である。It is a schematic explanatory drawing which shows the state which installed the automatic convection generator by this invention. 図1中Aにおける下降流通水管の水圧分布を示す要部拡大説明図である。Is an enlarged explanatory view showing the pressure distribution of the downflow through water pipe in the Figure 1 A. 図1中Bにおける下降流通水管の水圧分布を示す要部拡大説明図である。It is an enlarged explanatory view showing the pressure distribution of the downflow through water pipe in the Figure 1 B.

符号の説明Explanation of symbols

1 自動対流装置
2 箱体
3 浮力体
下降流通水管
5 逆止弁
6 逆止弁
7 表面水
8 潮流
9 波
10 流入水
11 水面側水圧
12 対流
13 錨
14 海底
15 凹地
16 水圧


1 automatic flow unit 2 box 3 floating bodies 4 downflow through the water pipe 5 check valve 6 a check valve 7 surface water 8 tide nine waves 10 influent 11 waterside pressure 12 convection 13 anchor 14 seabed 15 depression 16 water pressure


Claims (1)

周囲に浮力体を取付けた箱体の底部および側部には一方向のみの流入を可能にした逆止弁を装備し、また底部には海底に垂下する下降流通水管を取付けたことを特徴とする、自動対流発生装置。Characterized in that the bottom and sides of the box body fitted with a buoyant body equipped with check valve to allow inflow of only one direction, and the bottom fitted with a downflow through the water pipe extending downward to the seabed around An automatic convection generator.
JP2006253728A 2006-09-20 2006-09-20 Autoconvection generating device Pending JP2008072922A (en)

Priority Applications (1)

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JP2006253728A JP2008072922A (en) 2006-09-20 2006-09-20 Autoconvection generating device

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JP2006253728A JP2008072922A (en) 2006-09-20 2006-09-20 Autoconvection generating device

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JP2008072922A5 true JP2008072922A5 (en) 2008-09-25

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Publication number Priority date Publication date Assignee Title
JP5022321B2 (en) * 2008-08-22 2012-09-12 大成建設株式会社 Seawater circulation device
GB201000905D0 (en) * 2009-08-13 2010-03-10 Birkett Harold Biological pump and electric generators
GB2488198A (en) * 2011-02-15 2012-08-22 Harold Birkett Oceanic pump for removal of carbon dioxide from the atmosphere
CN102963946B (en) * 2012-11-21 2014-10-08 时光 Floating type sewage treatment machine
JP5884216B1 (en) * 2015-07-09 2016-03-15 株式会社サンエイ Water quality improvement device
CN109952989B (en) * 2019-03-04 2021-03-09 浙江大学 Tidal-difference type artificial down-flow device
CN110228130B (en) * 2019-06-27 2020-10-16 郑州铁路职业技术学院 Prefabricated case roof beam of viaduct circulation curing means
CN110228131B (en) * 2019-06-27 2020-10-16 郑州铁路职业技术学院 Precast box girder curing means

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