JP7456701B1 - Offshore research laboratory - Google Patents
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- 241000195493 Cryptophyta Species 0.000 claims abstract description 24
- 239000002689 soil Substances 0.000 claims abstract description 21
- XLYOFNOQVPJJNP-UHFFFAOYSA-N water Substances O XLYOFNOQVPJJNP-UHFFFAOYSA-N 0.000 claims description 18
- 238000007667 floating Methods 0.000 claims description 5
- OKTJSMMVPCPJKN-UHFFFAOYSA-N Carbon Chemical compound [C] OKTJSMMVPCPJKN-UHFFFAOYSA-N 0.000 abstract description 16
- 229910052799 carbon Inorganic materials 0.000 abstract description 16
- 230000029553 photosynthesis Effects 0.000 abstract description 5
- 238000010672 photosynthesis Methods 0.000 abstract description 5
- 241001474374 Blennius Species 0.000 abstract description 4
- 230000003247 decreasing effect Effects 0.000 abstract description 3
- 235000016709 nutrition Nutrition 0.000 abstract description 2
- 239000003643 water by type Substances 0.000 abstract description 2
- 238000010586 diagram Methods 0.000 abstract 1
- 238000010248 power generation Methods 0.000 description 10
- 230000005611 electricity Effects 0.000 description 3
- 230000001133 acceleration Effects 0.000 description 2
- 239000013505 freshwater Substances 0.000 description 2
- 238000009434 installation Methods 0.000 description 2
- 244000005700 microbiome Species 0.000 description 2
- 238000010521 absorption reaction Methods 0.000 description 1
- 238000004891 communication Methods 0.000 description 1
- 230000003670 easy-to-clean Effects 0.000 description 1
- 230000000694 effects Effects 0.000 description 1
- 238000005516 engineering process Methods 0.000 description 1
- 230000007613 environmental effect Effects 0.000 description 1
- 235000015097 nutrients Nutrition 0.000 description 1
- 238000005507 spraying Methods 0.000 description 1
- 238000010792 warming Methods 0.000 description 1
- 239000002023 wood Substances 0.000 description 1
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Abstract
【課題】従来では、ブルーカーボンを生み出す海藻類は自然環境での育成にゆだねられ、太陽光がいきわたる浅瀬にごく限られており、港の設置や海水浴場等の観光開発・商業施設の拡張により、育成域が減ることはあっても、増加することはなかった。【解決手段】藻を養殖するための培養土ユニットを、複数の密閉木箱の浮力によって軽くしたうえで、複数の木造人工島ユニットから4本のワイヤーで吊り下げ、該培養土ユニットにて藻を育成し、効率のよい光合成を行う藻の種の品種改良を行い、また藻にとって最も育成条件がよい海面からの距離の検討や該藻にとって最も栄養価の高い該培養土にて育成するための研究を行うことができる、住居が付帯した洋上研究所をつくる。【選択図】図１[Challenge] Conventionally, seaweed that produces blue carbon has been left to grow in the natural environment and has been limited to shallow waters where sunlight is abundant. Although the growing area may have decreased, it has not increased. [Solution] A cultivation soil unit for cultivating algae is made lighter by the buoyancy of multiple sealed wooden boxes, and then suspended from multiple wooden artificial island units with four wires, and the cultivation soil unit is used to grow algae. In order to cultivate algae and improve the breed of algae that can carry out efficient photosynthesis, we also considered the distance from the sea surface that provides the best growth conditions for algae, and cultivated algae in the culture soil that has the highest nutritional value for the algae. Build an offshore research laboratory with attached housing where research can be conducted. [Selection diagram] Figure 1
Description
本発明は、海上や湖上に浮遊型の木造人工島を浮かべ、該木造人工島から、ワイヤーで吊った培養土ユニットで海藻又は淡水藻を育成し、該海藻又は淡水藻の光合成によってCO2を削減するシステム、いわゆるブルーカーボンの技術に関する洋上研究所の提案である。
ブルーカーボンとは、海洋生物の働きによって海洋環境に吸収・貯留されている炭素のことである。人間活動によるCO2の排出量は炭素換算にして年間約94億tにのぼりますが、陸上の森林などの植物は約19億t吸収し、海洋全体で約25億t、そのうちブルーカーボン生態系によるCO2吸収が約11億tであることがわかってきている。
陸上の植物によって固定化された炭素は、数十年単位で微生物によって再び分解されてCO2として大気中に放出されます。一方、海底に蓄積された炭素は、無酸素状態のため微生物による分解が抑制されることで、その分解が数千年単位と非常にゆっくりとしたものとなっている。
このような特徴から、ブルーカーボンは、地球温暖化の原因とされるCO2の新たな吸収源として注目されている。
The present invention floats a floating wooden artificial island on the sea or a lake, grows seaweed or freshwater algae from the wooden artificial island in a culture soil unit suspended by wire, and reduces CO2 through photosynthesis of the seaweed or freshwater algae. This is an offshore research institute's proposal for a system to do this, so-called blue carbon technology.
Blue carbon is carbon that is absorbed and stored in the marine environment by the action of marine organisms. CO2 emissions from human activities amount to approximately 9.4 billion tons per year in carbon equivalent, but plants such as forests on land absorb approximately 1.9 billion tons, and the ocean as a whole absorbs approximately 2.5 billion tons, of which blue carbon ecosystems account for approximately 9.4 billion tons. It is becoming clear that CO2 absorption is approximately 1.1 billion tons.
Carbon fixed by plants on land is broken down again by microorganisms over several decades and released into the atmosphere as CO2. On the other hand, carbon accumulated on the ocean floor is decomposed very slowly, on the order of several thousand years, because the anoxic conditions prevent microorganisms from decomposing it.
Because of these characteristics, blue carbon is attracting attention as a new source of absorbing CO2, which is thought to be the cause of global warming.
従来では、ブルーカーボンを生み出す海藻類は自然環境での育成にゆだねられ、太陽光がいきわたる浅瀬にごく限られており（＝海洋全体の0.2％）、港の設置や海水浴場等の観光開発・商業施設の拡張により、育成域が減ることはあっても、増加することはなかった。
また、天候や潮の満ち引きにて太陽光が十分に届かないときがあり、十分な育成状態とはいえなかった。さらに赤潮の発生によっても、藻の育成が阻害されることがあった。
Conventionally, seaweed that produces blue carbon has been left to grow in the natural environment and has been limited to shallow waters where sunlight is abundant (= 0.2% of the entire ocean). Due to the expansion of commercial facilities, the growing area may have decreased, but it has not increased.
Additionally, depending on the weather and tides, there were times when the sunlight did not reach enough, resulting in insufficient growth. Furthermore, the growth of algae could be inhibited by the occurrence of red tide.
藻を養殖するための培養土ユニットの重量を、複数の密閉木箱の浮力によって軽くしたうえで、複数の木造人工島ユニットから4本のワイヤーで吊り下げ、該培養土ユニットにて藻を育成し、効率のよい光合成を行う藻の種の品種改良を行い、また藻にとって最も育成条件がよい海面からの距離の検討や該藻にとって最も栄養価の高い培養土にて育成するための研究・検討 を行うことができる、住居が付帯した洋上研究所をつくる。
The weight of the cultivation soil unit for cultivating algae is reduced by the buoyancy of multiple sealed wooden boxes, and then suspended from multiple wooden artificial island units with four wires, and the cultivation soil unit is used to grow algae. In addition, we are conducting research to improve the varieties of algae that can perform efficient photosynthesis, as well as examining the distance from the sea surface that provides the best growth conditions for algae, and researching ways to grow algae in culture soil that has the highest nutritional value. We will create an offshore research laboratory with attached housing where studies can be conducted.
洋上に浮かべた木造人工島ユニットの下側や複数の木造人工島ユニットの間にて、複数の密閉木箱の浮力によって、該培養土ユニットを軽くしたうえで、4本のワイヤーで該培養土ユニットを吊り下げ、該培養土ユニット上で藻の養殖を行う。
また、該木造人工島の上には住居を設定し、研究員及び研究員の家族が住めるようにする。
海流の流れに向けて、複数の木造人工島ユニットの間に狭い流路を設定し、該流路に沿って大型水車を設置し、また該木造人工島ユニットの間に海流ガイドを設定し、比較的広い海流の流れを狭めることで海流の流速を増し、該大型水車を比較的高速で回転させ、波力発電を行なう。（研究や生活のための電力の供給）
該木造人工島にAIで制御される複数の電動スクリューを設置し、該電動スクリューを稼働させ、海流の流れによって該木造人工島が移動するのを防止し、洋上でのGPS上の位置を維持するようにする。
尚、洋上でのGPS上の位置を維持するためのスクリューの稼働の電力が足りない場合は別途「ツリー型太陽光発電システム」を該木造人工島の上に設置する。
The culture soil unit is made lighter by the buoyancy of a number of sealed wooden boxes below a wooden artificial island unit floating on the ocean or between a number of wooden artificial island units, and then the culture soil unit is suspended by four wires, and algae are cultivated on the culture soil unit.
In addition, residences will be set up on the wooden artificial island to accommodate researchers and their families.
A narrow channel is set up between multiple wooden artificial island units facing the ocean current, and a large water wheel is installed along the channel. Also, an ocean current guide is set up between the wooden artificial island units, narrowing the relatively wide ocean current, increasing the flow speed of the ocean current, and rotating the large water wheel at a relatively high speed to generate wave power. (Providing electricity for research and life)
A number of electric screws controlled by AI are installed on the wooden artificial island, and by operating the electric screws, the wooden artificial island is prevented from moving due to ocean currents and its position on the GPS on the ocean is maintained.
Furthermore, if there is insufficient power to operate the screw to maintain GPS position at sea, a separate "tree-type solar power generation system" will be installed on top of the wooden artificial island.
ブルーカーボンの研究をする洋上研究所が増加し、複数の該洋上研究所同士の共同研究や情報共有によって、効率のよい光合成を行う藻の種類や育成条件が見つかり、世界中に木造人工島のブルーカーボンを展開することで、2050年を待たずに、カーボンニュートラルを達成する可能性がある。
The number of offshore research institutes conducting research on blue carbon is increasing, and through joint research and information sharing between these institutes, it is possible to discover types of algae that perform efficient photosynthesis and the conditions for their growth. By spreading blue carbon on wooden artificial islands around the world, it may be possible to achieve carbon neutrality before 2050.
洋上に浮かべた木造人工島ユニットの下側や複数の木造人工島ユニットの間にて、複数の密閉木箱の浮力によって、該培養土ユニットを軽くしたうえで、4本のワイヤーで該培養土ユニットを吊り下げ、該培養土ユニット上で藻の養殖を行う。
また、該木造人工島の上には住居を設定し、研究員が住めるようにする。
海流の流れに向けて、複数の木造人工島ユニットの間に狭い流路を設定し、該流路に沿って大型水車を設置し、また該木造人工島ユニットの間に海流ガイドを設定し、比較的広い海流の流れを狭めることで海流の流速を増し、該大型水車を比較的高速で回転させ、波力発電を行なう。
該木造人工島にAIで制御される複数のスクリューを設置し、該スクリューを稼働させ、海流の流れによって該木造人工島が移動するのを防止し、洋上でのGPS上の位置を維持するようにする。
尚、洋上でのGPS上の位置を維持するためのスクリューの稼働の電力が足りない場合は別途ツリー型太陽光発電システムを該木造人工島の上に設置する。
The cultivation soil unit is made lighter by the buoyancy of multiple sealed wooden boxes, and then the cultivation soil is placed under the wooden artificial island unit floating on the ocean or between multiple wooden artificial island units using four wires. The unit is suspended, and algae are cultivated on the culture soil unit.
Additionally, a residence will be set up on the wooden artificial island so that researchers can live there.
A narrow channel is set between a plurality of wooden artificial island units in the direction of the ocean current, a large water turbine is installed along the channel, and an ocean current guide is set between the wooden artificial island units, By narrowing the flow of a relatively wide ocean current, the flow speed of the ocean current is increased, and the large water turbine is rotated at a relatively high speed to generate wave power generation.
Install multiple screws controlled by AI on the wooden artificial island and operate the screws to prevent the wooden artificial island from moving due to ocean currents and maintain its position on the GPS at sea. Make it.
In addition, if there is insufficient power to operate the screw to maintain the position on the GPS at sea, a separate tree-type solar power generation system will be installed on the wooden artificial island.
図1において、木造人工島ユニットとは□12mの木枠のことで、下側から必要な大きさや個数の密閉木箱の浮力で、該木造人工島ユニットの積載物の重量と相殺する形で浮力バランスを保つ。（図３参照）
培養土ユニットとは、藻の生育に必要な栄養分を備えた土を木枠の上に乗せたもので、重量物なので複数の該密閉木箱で浮力バランスを保った上で、該木枠の４隅をワイヤーで、該木造人工島ユニットから吊り下げる。
洋上に浮かべた木造人工島ユニットの下側又は複数の木造人工島ユニット間にて、複数の密閉木箱の浮力により、培養土ユニットの重量を軽くしたうえで、
4本のワイヤーで該培養土ユニットを吊り下げ、該培養土ユニット上で藻の養殖・研究を行う洋上研究所であって、該木造人工島の上には住居を設定し、複数の研究員が住めるようにする洋上研究所であって、海流の流れに向けて、複数の木造人工島の間に狭い流路を設定し、該流路に沿って大型水車を設置し、また該木造人工島に海流ガイドを設定し、広い海流の流れを狭めることで海流の流速を増し、該大型水車を海流の流れより高速で回転させ、波力発電を行なう洋上研究所であって、該木造人工島に複数のAI制御のスクリューを設置し、該AIが該スクリューを稼働させ、海流の流れによって該木造人工島が移動するのを防止し、GPS上の位置を維持することができる洋上研究所である。
該木造人工島にAIで制御される複数のスクリューを設置し、該AIが該スクリューを稼働させ、海流の流れによって該木造人工島が移動するのを防止し、洋上でのGPS上の位置を維持するようにする。
海流の流れの方向が変わった場合には、該AIが複数の該スクリューの稼働（回転数）バランスを調整し、該木造人工島の向きを修正し、該大型水車の回転方向が、常に海流の流れに正対するようにする。
尚、洋上でのGPS上の位置を維持するためのスクリューの稼働の電力が足りない場合は別途ツリー型太陽光発電システムを該木造人工島の上に設置する。
In Figure 1, the wooden artificial island unit is a wooden frame of 12m square, and the buoyancy of the necessary size and number of sealed wooden boxes from below balances the weight of the cargo on the wooden artificial island unit (see Figure 3).
The culture soil unit is a wooden frame on which soil containing nutrients necessary for the growth of algae is placed, and since it is heavy, the buoyancy balance is maintained using a number of closed wooden boxes, and the four corners of the wooden frame are hung from the wooden artificial island unit by wires.
The weight of the culture soil unit is reduced by the buoyancy of multiple sealed wooden boxes placed under the wooden artificial island unit floating on the ocean or between multiple wooden artificial island units.
The culture soil unit is suspended by four wires and algae are cultivated and researched on the culture soil unit in this offshore laboratory. Residences are set up on the wooden artificial island so that multiple researchers can live there. A narrow flow path is set between multiple wooden artificial islands toward the flow of ocean currents and large water wheels are installed along the flow path. Ocean current guides are also set up on the wooden artificial islands to narrow the wide ocean current and increase the flow speed of the ocean current, causing the large water wheels to rotate faster than the ocean current, thereby generating wave power. Multiple AI-controlled screws are installed on the wooden artificial island and the AI operates the screws, preventing the wooden artificial island from moving due to ocean currents and maintaining its position on GPS.
A number of screws controlled by AI are installed on the wooden artificial island, and the AI operates the screws to prevent the wooden artificial island from moving due to ocean currents and to maintain its GPS position on the ocean.
If the direction of the ocean current changes, the AI adjusts the balance of the operation (rotation speed) of the multiple screws and corrects the orientation of the wooden artificial island so that the rotation direction of the large water wheel always faces directly into the ocean current.
Furthermore, if there is insufficient power to operate the screw to maintain GPS position at sea, a separate tree-type solar power generation system will be installed on top of the wooden artificial island.
図２に木造人工島上の藻の養殖の概要を示す。
図３に、木造人工島の概要を示す。
木材で□12mのアングルを組み、木造人工島の基本ユニットとする。また図２では該木造人工島の基本ユニットは６個であるが、該木造人工島の基本ユニットを矢印の方向に継ぎ足し拡張し、□数キロメートル以上の大型の人工島にすることができる。
該木造人工島の拡張に関して、該アングルの側面に穴をあけ、木製リベットで位置決めをした上で、該アングル同士の接着にて、拡張をする。
すなわち、該木造人工島の拡張により、数多くの大型水車及び発電機等の設置が可能になり、より大規模な発電を行うことができる。
また、密閉木箱（各辺2mの立方体＝約8ｔの浮力がある）の数を増減させることで、積載重量とのバランスをとることができる。
Figure 2 shows an overview of algae cultivation on a wooden artificial island.
Figure 3 shows an overview of the wooden artificial island.
Assemble a □12m angle with wood to form the basic unit of a wooden artificial island. Further, in FIG. 2, the wooden artificial island has six basic units, but the basic units of the wooden artificial island can be added and expanded in the direction of the arrow to make a large artificial island of several kilometers or more.
Regarding the expansion of the wooden artificial island, holes are made in the sides of the angles, the positions are determined using wooden rivets, and the angles are glued together for expansion.
That is, by expanding the wooden artificial island, it becomes possible to install many large water turbines, generators, etc., and it is possible to generate power on a larger scale.
In addition, by increasing or decreasing the number of sealed wooden boxes (cubes with sides of 2 m = approximately 8 tons of buoyancy), it is possible to balance the loading weight.
図４に、木造人工島の波力発電の概要を示す。
複数の木造人工島ユニットを沿岸部に設定し、該木造人工島ユニット間に狭い流路：0.6mを、海岸線に対し直角に設定し、該流路に沿って直径19mで、幅0.4mの水かきの付帯した大型水車を設定し、また海岸線の反対側の該複数の木造人工島ユニットに海流ガイドを設定し、海岸に向かってきた波の流れを、徐々に狭めながら、該狭い流路に導くことで、波の流速を増し、該大型水車を比較的高速で回転させ、発電を行なう。
また、該水車の軸や軸受けを設定し、該水車の軸には、ギアが連動しており、該ギアによって、該ギアボックス内の複数のギアが回転し、該ギアボックスによって、該水車からの回転が加速されて、発電機を高速で回すことができる。
尚、該複数の木造人工島が海流によって移動をしないように、複数の固定支柱で囲み、該固定支柱は該複数の木造人工島の水平方向での移動規制を行うが、上下の移動には何ら規制するものではなく、該複数の木造人工島は潮の満ち引きに対応して、上下には自由に動くことができる。
一般的には海流の進行方向は陸地に沿って、すなわち海岸線に平行に進行するが、「より浅い方向に波が向かう性質」がある。浅くなると、波にとって抵抗となり、波の速度を落としながら、より浅い方向に、すなわち海岸線に向かうという性質である。
一方で、ベルヌーイの定理の考え方では、「流速は流路幅にほぼ反比例」するので、可能な限り大きな比をとることで、すなわち標準の木造人工島ユニットの大きさで作れる12mの流路を0.6mにすることで、理論上24倍の加速があり、実際にも第一段の水車では10数倍、第二段でも10倍程度の流速にはなると考えられ、さらに水のエネルギーは空気のエネルギーに比べ770倍もあり、水車が大きなトルクで回転をするので、ギアボックスによる加速が効き、すなわち、24時間大容量の発電が可能になる。
Figure 4 shows an overview of wave power generation from a wooden artificial island.
A number of wooden artificial island units are set up on the coast, and a narrow flow path of 0.6 m is set between the wooden artificial island units at right angles to the coastline. A large water wheel with a diameter of 19 m and a width of 0.4 m and equipped with paddles is set along the flow path. Also, an ocean current guide is set up on the multiple wooden artificial island units on the opposite side of the coastline, and the flow of waves approaching the coast is gradually narrowed while being guided into the narrow flow path, increasing the flow speed of the waves, which then rotates the large water wheel at a relatively high speed to generate electricity.
In addition, the shaft and bearings of the water turbine are set, and a gear is linked to the shaft of the water turbine. The gear rotates multiple gears in the gear box, and the gear box accelerates the rotation from the water turbine, allowing the generator to rotate at high speed.
In order to prevent the multiple wooden artificial islands from moving due to ocean currents, they are surrounded by multiple fixed supports that restrict the horizontal movement of the multiple wooden artificial islands, but do not restrict their vertical movement at all, and the multiple wooden artificial islands can move freely up and down in response to the ebb and flow of the tides.
Generally, ocean currents move along land, i.e. parallel to the coastline, but they have a tendency to move in shallower directions. When the water becomes shallower, resistance is created for the waves, slowing them down and causing them to move in a shallower direction, i.e. toward the coastline.
On the other hand, according to Bernoulli's theorem, "flow velocity is roughly inversely proportional to the width of the channel," so by taking the largest possible ratio, that is, by reducing the width of a 12m channel, which can be made with the size of a standard wooden artificial island unit, to 0.6m, there is a theoretical acceleration of 24 times. In reality, the flow velocity is thought to be several ten times faster in the first stage turbine, and about ten times faster in the second stage. Furthermore, because the energy of water is 770 times that of air, and the turbine rotates with a large torque, the gearbox provides acceleration, meaning that large-capacity power generation is possible 24 hours a day.
図５にツリー型太陽光発電システムの概要を示す。
ツリー型太陽光発電システム「特許第６６５６５２２号」は、標準形でメガソーラーの設置効率４０倍で、収納機能があり強風に耐え、雪や砂嵐にも強い。
また周囲の自然や既存の建物と共存し、環境破壊を起こさない。さらに洋上の木造人工島上に設置すると、土台が不要で、木枠に固定するだけでよくて、
朝日や夕日でも（海上の反射光も加算され）発電量を見込むことができる。
365日分の正確な追尾角度のプログラムを内蔵したエッジ（AI）コン ピューターが付帯しており、設置場所の緯度等を入力し、また 各ワイヤー巻取り機（エンコーダー内蔵）の設置現場での校正 値を入力することで、自動で正確な太陽光追尾が可能になる。
（夜間は発電しないので）蓄電池を付帯させ、該蓄 電池とAI搭載のコンピューター及びカメラを付帯させたユニット構成とし、ラメラ画像からの木々の揺れの 状況で風の強さを知り、また降雪状況から、受光パネ ルを収納箱に収納したり、受光パネルを垂直気味にする。
該AIとスマートホンがWi-Fi通信でつながり、スマート ホンアプリでマニュアル操作が可能であり、洗浄しや すい位置に各パネルを移動し、作業員が水をかけながらブラシで太陽光パネルを洗浄することができる。
Figure 5 shows an overview of the tree-type solar power generation system.
The tree-type solar power generation system ``Patent No. 6,656,522'' has a standard type installation efficiency of 40 times that of a mega solar system, has a storage function, can withstand strong winds, and is resistant to snow and sandstorms.
It also coexists with the surrounding nature and existing buildings and does not cause environmental damage. Furthermore, if you install it on a wooden artificial island in the ocean, you don't need a foundation and just need to fix it to a wooden frame.
It is possible to estimate the amount of power generated even at sunrise or sunset (by adding reflected light from the sea).
Equipped with an Edge (AI) computer with a built-in 365-day accurate tracking angle program, you can enter the latitude of the installation location, etc., and perform on-site calibration of each wire winder (with built-in encoder). By inputting the values, automatic and accurate sunlight tracking becomes possible.
The system is configured as a unit that includes a storage battery (because it does not generate electricity at night), and an AI-equipped computer and camera, which can determine wind strength based on the swaying of trees from lamellar images, and snowfall conditions. Therefore, store the light-receiving panel in a storage box or make the light-receiving panel slightly vertical.
The AI and smartphone are connected via Wi-Fi communication, and manual operation is possible using the smartphone app.Each panel is moved to an easy-to-clean position, and the worker cleans the solar panel with a brush while spraying water on it. be able to.
ブルーカーボンの研究をする洋上研究所が増加し、複数の該洋上研究所同士の共同研究や情報共有によって、効率のよい光合成を行う藻の種類や育成条件が見つかり、世界中に木造人工島のブルーカーボンを展開することで、2050年を待たずに、カーボンニュートラルを達成する可能性がある。
The number of offshore laboratories researching blue carbon is increasing, and through joint research and information sharing among multiple offshore laboratories, the types and growth conditions for algae that perform efficient photosynthesis have been discovered, and wooden artificial islands are being built all over the world. By deploying blue carbon, there is a possibility of achieving carbon neutrality before 2050.
Claims (1)
4本のワイヤーで該培養土ユニットを吊り下げ、該培養土ユニット上で藻の養殖・研究を行う洋上研究所であって、該木造人工島の上には住居を設定し、複数の研究員が住めるようにする洋上研究所であって、海流の流れに向けて、複数の木造人工島の間に狭い流路を設定し、該流路に沿って大型水車を設置し、また該木造人工島に海流ガイドを設定し、広い海流の流れを狭めることで海流の流速を増し、該大型水車を海流の流れより高速で回転させ、波力発電を行なう洋上研究所であって、該木造人工島に複数のAI制御のスクリューを設置し、
該AIが該スクリューを稼働させ、海流の流れによって該木造人工島が移動するのを防止し、GPS上の位置を維持することができる洋上研究所。 The weight of the cultivation soil unit is reduced by the buoyancy of multiple sealed wooden boxes on the underside of a wooden artificial island unit floating on the ocean or between multiple wooden artificial island units.
This is an offshore research laboratory where the cultivation soil unit is suspended by four wires and algae cultivation and research are carried out on the cultivation soil unit.A residence is set up on the wooden artificial island, and multiple researchers are housed on the island. It is an offshore research laboratory that is designed to be habitable, with narrow channels set between multiple wooden artificial islands in the direction of ocean currents, and large water turbines installed along the channels. This is an offshore research institute that generates wave power by setting ocean current guides to narrow the wide ocean current, increasing the velocity of the ocean current, and rotating the large water turbine at a higher speed than the ocean current. Install multiple AI-controlled screws in
An offshore laboratory where the AI can operate the screw, prevent the wooden artificial island from moving due to ocean currents, and maintain its position on the GPS.
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Citations (5)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JP2001231387A (en) | 2000-02-21 | 2001-08-28 | Sumitomo Osaka Cement Co Ltd | Culturing tool and method for growing alga by using the culturing tool |
| JP2015146788A (en) | 2014-02-07 | 2015-08-20 | 三菱マテリアル株式会社 | Algae culture method and algae culture apparatus |
| CN111003112A (en) | 2019-11-21 | 2020-04-14 | 河海大学 | Floating artificial island for water purification |
| US20210244005A1 (en) | 2020-02-07 | 2021-08-12 | Marine Depth Control Engineering LLC | Smart buoyancy in aquaculture |
| CN116473002A (en) | 2022-09-09 | 2023-07-25 | 中国交通建设股份有限公司 | Offshore aquaculture device and offshore aquaculture system |
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- 2024-01-09 JP JP2024000967A patent/JP7456701B1/en active Active
Patent Citations (5)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JP2001231387A (en) | 2000-02-21 | 2001-08-28 | Sumitomo Osaka Cement Co Ltd | Culturing tool and method for growing alga by using the culturing tool |
| JP2015146788A (en) | 2014-02-07 | 2015-08-20 | 三菱マテリアル株式会社 | Algae culture method and algae culture apparatus |
| CN111003112A (en) | 2019-11-21 | 2020-04-14 | 河海大学 | Floating artificial island for water purification |
| US20210244005A1 (en) | 2020-02-07 | 2021-08-12 | Marine Depth Control Engineering LLC | Smart buoyancy in aquaculture |
| CN116473002A (en) | 2022-09-09 | 2023-07-25 | 中国交通建设股份有限公司 | Offshore aquaculture device and offshore aquaculture system |
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