JP6318328B1 - Deep water temperature difference generator - Google Patents
Deep water temperature difference generator Download PDFInfo
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- JP6318328B1 JP6318328B1 JP2017197453A JP2017197453A JP6318328B1 JP 6318328 B1 JP6318328 B1 JP 6318328B1 JP 2017197453 A JP2017197453 A JP 2017197453A JP 2017197453 A JP2017197453 A JP 2017197453A JP 6318328 B1 JP6318328 B1 JP 6318328B1
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- XLYOFNOQVPJJNP-UHFFFAOYSA-N water Substances O XLYOFNOQVPJJNP-UHFFFAOYSA-N 0.000 title claims abstract description 1133
- 238000010248 power generation Methods 0.000 claims abstract description 87
- 238000007599 discharging Methods 0.000 claims abstract description 52
- 238000007667 floating Methods 0.000 claims description 354
- 239000012530 fluid Substances 0.000 claims description 182
- 239000002352 surface water Substances 0.000 claims description 124
- 239000010410 layer Substances 0.000 claims description 120
- 230000000149 penetrating effect Effects 0.000 claims description 101
- 230000008878 coupling Effects 0.000 claims description 53
- 238000010168 coupling process Methods 0.000 claims description 53
- 238000005859 coupling reaction Methods 0.000 claims description 53
- 239000013535 sea water Substances 0.000 claims description 50
- 239000007788 liquid Substances 0.000 claims description 44
- 230000005484 gravity Effects 0.000 claims description 24
- 238000010438 heat treatment Methods 0.000 claims description 22
- 239000002344 surface layer Substances 0.000 claims description 20
- 238000009360 aquaculture Methods 0.000 claims description 16
- 244000144974 aquaculture Species 0.000 claims description 16
- 239000013505 freshwater Substances 0.000 claims description 16
- 230000005674 electromagnetic induction Effects 0.000 claims description 15
- 238000005507 spraying Methods 0.000 claims description 6
- 238000009413 insulation Methods 0.000 claims description 3
- 238000006243 chemical reaction Methods 0.000 claims 2
- 230000005494 condensation Effects 0.000 claims 1
- 238000009833 condensation Methods 0.000 claims 1
- 230000035515 penetration Effects 0.000 claims 1
- 241000234314 Zingiber Species 0.000 description 7
- 235000006886 Zingiber officinale Nutrition 0.000 description 7
- 235000008397 ginger Nutrition 0.000 description 7
- 239000002184 metal Substances 0.000 description 4
- 239000004576 sand Substances 0.000 description 4
- 230000000903 blocking effect Effects 0.000 description 2
- 230000004888 barrier function Effects 0.000 description 1
- 238000009395 breeding Methods 0.000 description 1
- 230000001488 breeding effect Effects 0.000 description 1
- 230000005611 electricity Effects 0.000 description 1
- 238000009313 farming Methods 0.000 description 1
- 230000006698 induction Effects 0.000 description 1
- 235000015097 nutrients Nutrition 0.000 description 1
- 238000005086 pumping Methods 0.000 description 1
- 230000000717 retained effect Effects 0.000 description 1
- 150000003839 salts Chemical class 0.000 description 1
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B63—SHIPS OR OTHER WATERBORNE VESSELS; RELATED EQUIPMENT
- B63B—SHIPS OR OTHER WATERBORNE VESSELS; EQUIPMENT FOR SHIPPING
- B63B35/00—Vessels or similar floating structures specially adapted for specific purposes and not otherwise provided for
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- A—HUMAN NECESSITIES
- A01—AGRICULTURE; FORESTRY; ANIMAL HUSBANDRY; HUNTING; TRAPPING; FISHING
- A01K—ANIMAL HUSBANDRY; AVICULTURE; APICULTURE; PISCICULTURE; FISHING; REARING OR BREEDING ANIMALS, NOT OTHERWISE PROVIDED FOR; NEW BREEDS OF ANIMALS
- A01K61/00—Culture of aquatic animals
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F03—MACHINES OR ENGINES FOR LIQUIDS; WIND, SPRING, OR WEIGHT MOTORS; PRODUCING MECHANICAL POWER OR A REACTIVE PROPULSIVE THRUST, NOT OTHERWISE PROVIDED FOR
- F03G—SPRING, WEIGHT, INERTIA OR LIKE MOTORS; MECHANICAL-POWER PRODUCING DEVICES OR MECHANISMS, NOT OTHERWISE PROVIDED FOR OR USING ENERGY SOURCES NOT OTHERWISE PROVIDED FOR
- F03G7/00—Mechanical-power-producing mechanisms, not otherwise provided for or using energy sources not otherwise provided for
- F03G7/04—Mechanical-power-producing mechanisms, not otherwise provided for or using energy sources not otherwise provided for using pressure differences or thermal differences occurring in nature
- F03G7/05—Ocean thermal energy conversion, i.e. OTEC
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
- Y02E10/00—Energy generation through renewable energy sources
- Y02E10/30—Energy from the sea, e.g. using wave energy or salinity gradient
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- Life Sciences & Earth Sciences (AREA)
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- Ocean & Marine Engineering (AREA)
- Environmental Sciences (AREA)
- Biodiversity & Conservation Biology (AREA)
- Animal Husbandry (AREA)
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- General Life Sciences & Earth Sciences (AREA)
- Oceanography (AREA)
- Sustainable Development (AREA)
- General Engineering & Computer Science (AREA)
- Farming Of Fish And Shellfish (AREA)
Abstract
【課題】深層水を少ないエネルギーでくみ上げると共に大電力発電が可能な深層水温度差発電装置を提供する。【課題を解決するための手段 】一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備える深層水取水構造物を大型筒円筒状に具備し深層水を少ないエネルギーでくみ上げると共に作動気体の流れにより回転する大型内側回転部材により大電力発電が可能にする。【選択図】 なしDisclosed is a deep water temperature difference power generation device that can pump deep water with less energy and can generate large power. [Means for Solving the Problems] Deep water having a large inner and outer diameter at one upper end and comprising an upper air layer, an upper air discharge opening for discharging air from the upper air layer, and a water discharge opening on the water surface. The intake structure is provided in a large cylindrical shape so that deep water can be pumped with a small amount of energy, and large electric power can be generated by a large inner rotating member that is rotated by the flow of working gas. [Selection figure] None
Description
本発明は一端の上部に大きな内外径を具備すると共に水面上の水排出用開口を備えた深層水貯蔵槽と前記深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管を有する深層水取水構造物を大型筒円筒状に具備し深層水を少ないエネルギーでくみ上げると共に大型筒円筒型気密空間に備えられた作動気体の流れにより回転する大型内側回転部材により大電力発電が可能な深層水温度差発電装置に関する。
なお、本発明における”大型筒円筒”とは円筒の筒の内径が円筒の内外径幅に比較して”大型”で円筒の長さが円筒の外形に比較して短かく前記内外径幅と同程度からその十倍程度の長さで立体的に一定の容積がある内外径が大きな大型円筒空間を意味する。
The present invention includes a deep water storage tank having a large inner and outer diameter at one upper end and a water discharge opening on the water surface, and a riser pipe having a deep water intake opening at the other end at the lower part of the deep water storage tank. The large-scale cylindrical water intake structure has a large cylindrical cylinder, pumps deep water with less energy, and enables large power generation by a large inner rotating member that is rotated by the working gas flow provided in the large cylindrical cylindrical airtight space. The present invention relates to a deep water temperature difference power generation device.
In the present invention, the term “large cylinder” means that the inner diameter of the cylinder is “large” compared to the inner and outer diameter width of the cylinder, and the length of the cylinder is shorter than the outer diameter of the cylinder. It means a large cylindrical space with a large inner and outer diameter with a three-dimensionally constant volume that is approximately the same to ten times as long.
日本の国土は世界第60位であるが、日本近海の海の深さは深いので日本の排他的経済区域の海水の容量は世界第１位であり、深層水を自然エネルギーとして利用することは重要である。本出願人は漁撈生簀及び漁撈生簀を兼ねる養殖生簀（特開２０１１-２１７６１５）、津波対策浮島（特開２０１５−２１４８６１）を既に提案している。 Japan's national land is the 60th in the world, but because of the depth of the sea near Japan, Japan's exclusive economic zone has the world's largest seawater capacity, and the use of deep water as natural energy is important. The present applicant has already proposed a fishing ginger and an aquaculture ginger that also serves as a fishing ginger (Japanese Patent Application Laid-Open No. 2011-217615) and a tsunami countermeasure floating island (Japanese Patent Application Laid-Open No. 2015-214861).
本発明は新規な深層水温度差発電装置を提供し、深層水を少ないエネルギーでくみ上 げると共に大電力の深層水温度差発電をすることを第一の目的とする。
本発明の第二の目的は前記深層水温度差発電装置を利用する深層水温度差発電環状漁業装置を提供することである。
本発明の第三の目的は前記深層水温度差発電装置を利用する深層水温度差発電津波対策鎖状環状漁業装置を提供することである。
The first object of the present invention is to provide a novel deep water temperature differential power generation device, which can generate deep water with a small amount of energy and perform high power deep water temperature differential power generation.
The second object of the present invention is to provide a deep water temperature difference power generation annular fishery device using the deep water temperature difference power generation device.
The third object of the present invention is to provide a chain-shaped fishery device for deep water temperature difference power generation tsunami countermeasures using the deep water temperature difference power generation device.
本願発明は、一端の上部に大きな外径を具備すると共に水面上の水排出用開口を備えた深層水貯蔵槽と前記深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管を有する深層水取水構造物を大型筒円筒状に具備し深層水を少ないエネルギーでくみ上げると共に大型筒円筒型気密空間に備えられた作動気体の流れにより回転する大型内側回転部材により大電力発電が可能な深層水温度差発電装置を提供するものである。
請求項1に記載の深層水温度差発電装置は、作動流体の気体を内蔵する内外径の大きな大型筒円筒型気密空間と、複数個の中間ボール或いは中間コロと前記複数個の中間ボール或いは中間コロと係合する内側壁を具備する大型外形支承部材及び前記複数個の中間ボール或いは中間コロと係合する外側壁と作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する大型内側回転部材とを備え前記大型筒円筒型気密空間内に内蔵され海面と略平行な回転体構造物と、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備える大型筒円筒状円筒深層水貯蔵槽と前記大型筒円筒状円筒深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管を具備する深層水取水構造物と前記大型筒円筒状円筒深層水貯蔵槽の内部を貫通し内部の水面が前記大型筒円筒状円筒深層水貯蔵槽外の水面と同じである際前記水排出用開口を閉鎖する比重が水より小さな円筒内部貫通部材とを有し前記大型筒円筒状円筒深層水貯蔵槽内で前記上部空気層の空気を自然エネルギー手段により排気し前記大型筒円筒状円筒深層水貯蔵槽内の水面を前記大型筒円筒状円筒深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を前記大型筒円筒状円筒深層水貯蔵槽の上部に移動させ前記水排出用開口より前記大型筒円筒状円筒深層水貯蔵槽に貯蔵された深層水を外部に排出する大型筒円筒状深層水貯蔵浮体部材と、前記大型筒円筒状円筒深層水貯蔵槽内に内蔵される作動流体の凝縮器と、前記大型筒円筒状深層水貯蔵浮体部材の大型筒円筒状円筒深層水貯蔵槽の外側に配置され底部から表層水が挿入される筒状表層水貯蔵浮体部材と、前記筒状表層水貯蔵浮体部材内に内蔵される作動流体の蒸発器と、前記大型筒円筒型気密空間の作動気体空間と前記凝縮器を連結する第一連結管を内蔵する第一の気密性部材と、前記回転翼に噴射する先端ノズルを備え前記大型筒円筒型気密空間の作動気体空間と前記蒸発器を連結する第二連結管を内蔵し円筒状略等間隔の角度で配置される複数個の第二の気密性部材と、前記蒸発器と前記凝縮器を連結する作動流体連結管を具備し、前記大型筒円筒状円筒深層水貯蔵槽内で前記円筒内部貫通部材の上部の空気を排気し前記大型筒円筒状円筒深層水貯蔵槽内の水面を前記大型筒円筒状円筒深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を上部に移動させ前記水排出用開口より貯蔵された深層水を前記大型筒円筒状円筒深層水貯蔵槽の外に排出して前記ライザー管内の海水又は湖水を上部に移動させ前記深層水取水構造物内の海水又は湖水を循環することにより前記深層水取水開口より深層水を前記大型筒円筒状円筒深層水貯蔵槽内に取水すると共に前記大型筒円筒型気密空間の作動気体空間と前記凝縮器を連結する前記第一連結管を通過した前記作動気体が前記大型筒円筒状円筒深層水貯蔵槽内の前記凝縮器により液体の作動流体となり、前記液体の作動流体は前記作動流体連結管を介して前記筒状表層水貯蔵浮体部材に内蔵された蒸発器を通過して気体の作動流体となり前記第二連結管に備えられた先端ノズルを介して前記大型内側回転部材の略等間隔の角度の固定された前記回転翼に噴射することを特徴とする。
請求項２に記載の深層水温度差発電装置は、作動流体ガ深層水に通過する凝縮器と、作動流体ガ表層水に通過する蒸発器と、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備え前記凝縮器を内蔵する円筒状深層水貯蔵槽と前記円筒状深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管と前記円筒状深層水貯蔵槽の内部を貫通し内部の水面が前記円筒状深層水貯蔵槽外の水面と同じである際前記水排出用開口を閉鎖する比重が水より小さな円筒内部貫通部材とを具備し前記円筒状深層水貯蔵槽内で前記上部空気層の空気を自然エネルギー手段により排気し前記深層水貯蔵槽内の水面を前記深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を前記円筒状深層水貯蔵槽の上部に移動させ前記水排出用開口より前記円筒状深層水貯蔵槽に貯蔵された深層水を外部に排出する円筒状深層水貯蔵浮体部材と 、底部から挿入される表層水と前記蒸発器を内蔵する円筒状表層水貯蔵浮体部材と、複数個の前記円筒状深層水貯蔵浮体部材及び前記円筒状表層水貯蔵浮体部材を円筒状に交互に配置する大型筒円筒状外形円筒浮体部材群と、作動流体の気体を内蔵する内外径の大きな大型筒円筒型気密空間と、複数個の中間ボール或いは中間コロと前記複数個の中間ボール或いは中間コロと係合する内側壁を具備する大型外形支承部材及び前記複数個の中間ボール或いは中間コロと係合する外側壁と作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する大型内側回転部材とを備え前記大型筒円筒型気密空間内に内蔵された海面と略平行な回転体構造物と、前記大型内側回転部材の回転と歯車連動によりに連動する磁石及びコイルが配置され電磁誘導により公知の如く発電する発電装置と、前記大型筒円筒型気密空間の下部に配置された前記大型筒円筒状外形円筒浮体部材群と、前記大型筒円筒型気密空間と複数個の前記円筒状深層水貯蔵浮体部材に内蔵された前記凝縮器を連結する第一連結管を内蔵する複数個の第一の気密性柱部材と、前記回転翼に噴射する先端ノズルを備え前記大型筒円筒型気密空間と前記蒸発器を連結する第二連結管を内蔵する複数個の第二の気密性柱部材と、円筒状に交互に配置された複数個の円筒状深層水貯蔵浮体部材と円筒状表層水貯蔵浮体部材に内蔵された前記凝縮器と隣の前記蒸発器を連結する作動流体連結管を内蔵する複数個の断熱性遮断結合部材を具備し、前記円筒状深層水貯蔵槽内で前記円筒内部貫通部材の上部の空気を排気し前記円筒状深層水貯蔵槽内の水面を前記円筒状深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を上部に移動させ前記水排出用開口より貯蔵された深層水を前記円筒状深層水貯蔵槽の外に排出して前記ライザー管内の海水又は湖水を上部に移動させ複数個の前記円筒状深層水貯蔵浮体部材内の海水又は湖水を循環することにより前記深層水取水開口より深層水を前記円筒状深層水貯蔵槽内に取水すると共に前記大型筒円筒型気密空間と前記凝縮器を連結する複数の前記第一連結管を通過した前記作動気体が前記円筒状深層水貯蔵槽内に内蔵する複数個の前記凝縮器により液体の作動流体となり、前記液体の作動流体は前記作動流体連結管を介して前記円筒状表層水貯蔵浮体部材に内蔵された複数の前記蒸発器を通過して気体の作動流体となり複数個の前記第二連結管に備えられた先端ノズルを介して大型内側回転部材の略等間隔の角度の固定された前記回転翼に噴射することを特徴とする。
請求項３に記載の深層水温度差発電装置は、作動流体の気体を内蔵する内外径の大きな大型筒円筒型気密空間と、複数個の中間ボール或いは中間コロと前記複数個の中間ボール或いは中間コロと係合する内側壁を具備する大型外形支承部材及び前記複数個の中間ボール或いは中間コロと係合する外側壁と作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する大型内側回転部材とを備え前記大型筒円筒型気密空間内に内蔵された海面と略平行な回転体構造物と、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備えた深層水貯蔵槽と前記深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管を具備する深層水取水構造物と前記深層水貯蔵槽の内部を貫通し内部の水面が前記深層水貯蔵槽外の水面と同じである際前記水排出用開口を閉鎖する比重が水より小さな内部貫通部材とを有し前記深層水貯蔵槽内で上部の空気を自然エネルギー手段により排気し前記深層水貯蔵槽内の水面を前記深層水貯蔵槽外の水面より上部に移動させることにより前記内部貫通部材を前記深層水貯蔵槽の上部に移動させ前記水排出用開口より前記深層水貯蔵槽に貯蔵された深層水を外部に排出する深層水貯蔵浮体部材と、底部から挿入される表層水を内蔵する表層水貯蔵浮体部材と、前記深層水貯蔵槽内に内蔵される作動流体の凝縮器と、前記表層水貯蔵浮体部材内に内蔵される作動流体の蒸発器と、前記大型筒円筒型気密空間と前記前記凝縮器を連結する第一連結管を内蔵する複数個の第一の気密性部材により結合され前記大型筒円筒型気密空間の作動気体空間と円筒状略等間隔の角度で配置される複数個の前記深層水貯蔵浮体部材と、複数個の前記深層水貯蔵浮体部材の空気排出開口と接続され前記深層水貯蔵槽内で上部の空気を自然エネルギー発電手段により排気する空気排気手段と、前記回転翼に噴射する先端ノズルを備え前記大型筒円筒型気密空間と前記蒸発器を連結する第二連結管を内蔵する複数個の第二の気密性部材により結合され前記大型筒円筒型気密空間と円筒状略等間隔の角度で配置される複数個の前記表層水貯蔵浮体部材と、前記蒸発器と隣の前記凝縮器を連結する作動流体連結管を具備し、前記深層水貯蔵槽内で前記内部貫通部材の上部の空気を排気し前記深層水貯蔵槽内の水面を前記深層水貯蔵槽外の水面より上部に移動させることにより前記内部貫通部材を上部に移動させ前記水排出用開口より貯蔵された深層水を前記深層水貯蔵槽の外に排出して前記ライザー管内の海水又は湖水を上部に移動させ前記深層水取水構造物内の海水又は湖水を循環することにより前記深層水取水開口より深層水を前記深層水貯蔵槽内に取水すると共に前記大型筒円筒型気密空間の作動気体空間と前記凝縮器を連結する前記複数個の第一の気密性部材に内蔵された第一連結管を通過した前記作動気体が前記深層水貯蔵槽内に内蔵する凝縮器により液体の作動流体となり、前記液体の作動流体は前記作動流体連結管を介して前記蒸発器を通過して気体の作動流体となり前記複数個の第二の気密性部材に内蔵された第二連結管に備えられた先端ノズルを介して前記大型内側回転部材の略等間隔の角度の固定された前記回転翼に噴射することを特徴とする。
請求項４に記載の深層水温度差発電装置は、前記大型筒円筒型気密空間と円筒状略等間隔の角度で配置される前記複数個の深層水貯蔵浮体部材と、前記大型筒円筒型気密空間と円筒状略等間隔の角度で配置される複数個の前記表層水貯蔵浮体部材と、前記深層水貯蔵浮体部材と隣の前記表層水貯蔵浮体部材を結合する前記断熱性遮断結合部材を具備する請求項２〜３のいずれか一項に記載の深層水温度差発電装置である。
請求項５に記載の深層水温度差発電装置は、作動流体の気体を内蔵すると共に円筒内部は太陽光を通過させる内外径の大きな大型筒円筒型気密空間と、複数個の中間ボール或いは中間コロと前記複数個の中間ボール或いは中間コロと係合する内側壁を具備する大型外形支承部材及び前記複数個の中間ボール或いは中間コロと係合する外側壁と作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する大型内側回転部材とを備え前記大型筒円筒型気密空間内に内蔵された海面と略平行な回転体構造物と、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備える大型筒円筒状円筒深層水貯蔵槽と前記大型筒円筒状円筒深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管を具備する深層水取水構造物と前記大型筒円筒状円筒深層水貯蔵槽の内部を貫通し内部の水面が前記大型筒円筒状円筒深層水貯蔵槽外の水面と同じである際前記水排出用開口を閉鎖する比重が水より小さな円筒内部貫通部材とを有し前記大型筒円筒状円筒深層水貯蔵槽内で前記上部空気層の空気を自然エネルギー手段により排気し前記大型筒円筒状円筒深層水貯蔵槽内の水面を前記大型筒円筒状円筒深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を前記大型筒円筒状円筒深層水貯蔵槽の上部に移動させ前記水排出用開口より前記大型筒円筒状円筒深層水貯蔵槽に貯蔵された深層水を外部に排出する大型筒円筒状深層水貯蔵浮体部材と、前記大型筒円筒状円筒深層水貯蔵槽内に内蔵される作動流体の凝縮器と、前記大型筒円筒状深層水貯蔵浮体部材の大型筒円筒状円筒深層水貯蔵槽の外側に配置され底部から表層水が挿入される筒状表層水貯蔵浮体部材と、前記筒状表層水貯蔵浮体部材内に内蔵される作動流体の蒸発器と、前記大型筒円筒型気密空間の作動気体空間と前記凝縮器を連結する第一連結管を内蔵する第一の気密性部材と、前記回転翼に噴射する先端ノズルを備え前記大型筒円筒型気密空間の作動気体空間と前記蒸発器を連結する第二連結管を内蔵し円筒状略等間隔の角度で配置される複数個の第二の気密性部材と、前記蒸発器と前記凝縮器を連結する作動流体連結管を具備し、前記大型筒円筒状円筒深層水貯蔵槽内で前記円筒内部貫通部材の上部の空気を排気し前記大型筒円筒状円筒深層水貯蔵槽内の水面を前記大型筒円筒状円筒深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を上部に移動させ前記水排出用開口より貯蔵された深層水を前記大型筒円筒状円筒深層水貯蔵槽の外に排出して前記ライザー管内の海水又は湖水を上部に移動させ前記深層水取水構造物内の海水又は湖水を循環することにより前記深層水取水開口より深層水を前記大型筒円筒状円筒深層水貯蔵槽内に取水すると共に前記大型筒円筒型気密空間の作動気体空間と前記凝縮器を連結する前記第一連結管を通過した前記作動気体が前記大型筒円筒状円筒深層水貯蔵槽内の前記凝縮器により液体の作動流体となり、前記液体の作動流体は前記作動流体連結管を介して前記筒状表層水貯蔵浮体部材に内蔵された蒸発器を通過して気体の作動流体となり前記第二連結管に備えられた先端ノズルを介して前記大型内側回転部材の略等間隔の角度の固定された前記回転翼に噴射すると共に前記深層水貯蔵槽から排出された深層水を前記大型筒円筒型気密空間の大型円筒内の海に排出することを特徴とする。
請求項６に記載の深層水温度差発電装置は、作動流体ガ深層水に通過する凝縮器と、作動流体ガ表層水に通過する蒸発器と、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備え前記凝縮器を内蔵する円筒状深層水貯蔵槽と前記円筒状深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管と前記円筒状深層水貯蔵槽の内部を貫通し内部の水面が前記円筒状深層水貯蔵槽外の水面と同じである際前記水排出用開口を閉鎖する比重が水より小さな円筒内部貫通部材とを具備し前記円筒状深層水貯蔵槽内で前記上部空気層の空気を自然エネルギー手段により排気し前記深層水貯蔵槽内の水面を前記深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を前記円筒状深層水貯蔵槽の上部に移動させ前記水排出用開口より前記円筒状深層水貯蔵槽に貯蔵された深層水を外部に排出する円筒状深層水貯蔵浮体部材と 、底部から挿入される表層水を自然エネルギー発電手段により加熱する加熱手段と前記蒸発器を内蔵する円筒状表層水貯蔵浮体部材と、複数個の前記円筒状深層水貯蔵浮体部材及び前記円筒状表層水貯蔵浮体部材を円筒状に交互に配置する大型筒円筒状外形浮体部材群と、作動流体の気体を内蔵すると共に円筒内部は太陽光を通過させる海面と略平行な内外径の大きな大型筒円筒型気密空間と、複数個の中間ボール或いは中間コロと前記複数個の中間ボール或いは中間コロと係合する内側壁を具備する大型外形支承部材及び前記複数個の中間ボール或いは中間コロと係合する外側壁と作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する大型内側回転部材とを備え前記大型筒円筒型気密空間内に内蔵された海面と略平行な回転体構造物と、前記大型内側回転部材の回転と歯車連動によりに連動する磁石及びコイルが配置され電磁誘導により公知の如く発電する発電装置と、前記大型筒円筒型気密空間の下部に配置された前記大型筒円筒状外形浮体部材群と、前記大型筒円筒型気密空間と複数個の前記円筒状深層水貯蔵浮体部材に内蔵された前記凝縮器を連結する第一連結管を内蔵する複数個の第一の気密性柱部材と、前記回転翼に噴射する先端ノズルを備え前記大型筒円筒型気密空間と前記蒸発器を連結する第二連結管を内蔵する複数個の第二の気密性柱部材と、円筒状に交互に配置された複数個の円筒状深層水貯蔵浮体部材と円筒状表層水貯蔵浮体部材に内蔵された前記凝縮器と隣の前記蒸発器を連結する作動流体連結管を内蔵する複数個の断熱性遮断結合部材と、前記円筒状深層水貯蔵浮体部材と前記円筒状表層水貯蔵浮体部材の外側に位置し５メートル以上の空気層と津波に耐えうる重量を有し引張力に耐えうる厚みと高さを備えた一個或いは二個の穴を有する浮体部材の多数個を結合部材によって結合した環状外壁浮体部材と、前記多数個の浮体部材の何れかに備えられ底部に淡水を有する浮体部材と、前記多数個の浮体部材の何れかに配置された風力発電等の自然エネルギー発電装置と、前記環状外壁浮体部材により保持された漁撈装置或いは養殖装置を具備し、前記円筒状深層水貯蔵槽内で前記円筒内部貫通部材の上部の空気を排気し前記円筒状深層水貯蔵槽内の水面を前記円筒状深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を上部に移動させ前記水排出用開口より貯蔵された深層水を前記円筒状深層水貯蔵槽の外に排出して前記ライザー管内の海水又は湖水を上部に移動させ前記円筒状深層水貯蔵浮体部材内の海水又は湖水を循環することにより前記深層水取水開口より深層水を前記円筒状深層水貯蔵槽内に取水すると共に前記大型筒円筒型気密空間と前記凝縮器を連結する複数の前記第一連結管を通過した前記作動気体が前記円筒状深層水貯蔵槽内に内蔵する前記凝縮器により液体の作動流体となり、前記液体の作動流体は前記作動流体連結管を介して前記円筒状表層水貯蔵浮体部材に内蔵された複数の前記蒸発器を通過して気体の作動流体となり複数個の前記第二連結管に備えられた先端ノズルを介して大型内側回転部材の略等間隔の角度の固定された前記回転翼に噴射すると共に前記円筒状深層水貯蔵槽から排出された深層水を前記大型筒円筒型気密空間の大型円筒内の海に排出することを特徴とする。
請求項７に記載の深層水温度差発電装置は、作動流体ガ深層水に通過する凝縮器と、作動流体ガ表層水に通過する蒸発器と、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備え前記凝縮器を内蔵する円筒状深層水貯蔵槽と前記円筒状深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管と前記円筒状深層水貯蔵槽の内部を貫通し内部の水面が前記円筒状深層水貯蔵槽外の水面と同じである際前記水排出用開口を閉鎖する比重が水より小さな円筒内部貫通部材とを具備し前記円筒状深層水貯蔵槽内で前記上部空気層の空気を自然エネルギー手段により排気し前記深層水貯蔵槽内の水面を前記深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を前記円筒状深層水貯蔵槽の上部に移動させ前記水排出用開口より前記円筒状深層水貯蔵槽に貯蔵された深層水を外部に排出する円筒状深層水貯蔵浮体部材と 、底部から挿入される表層水を自然エネルギー発電手段により加熱する加熱手段と前記蒸発器を内蔵する円筒状表層水貯蔵浮体部材と、複数個の前記円筒状深層水貯蔵浮体部材及び前記円筒状表層水貯蔵浮体部材を円筒状に交互に配置する大型筒円筒状外形円筒浮体部材群と、作動流体の気体を内蔵すると共に円筒内部は太陽光を通過させる海面と略平行な内外径の大きな大型筒円筒型気密空間と、複数個の中間ボール或いは中間コロと前記複数個の中間ボール或いは中間コロと係合する内側壁を具備する大型外形支承部材及び前記複数個の中間ボール或いは中間コロと係合する外側壁と作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する大型内側回転部材とを備え前記大型筒円筒型気密空間内に内蔵された海面と略平行な回転体構造物と、前記大型内側回転部材の回転と歯車連動によりに連動する磁石及びコイルが配置され電磁誘導により公知の如く発電する発電装置と、前記大型筒円筒型気密空間の下部に配置された前記大型筒円筒状外形円筒浮体部材群と、前記大型筒円筒型気密空間と複数個の前記円筒状深層水貯蔵浮体部材に内蔵された前記凝縮器を連結する第一連結管を内蔵する複数個の第一の気密性柱部材と、前記回転翼に噴射する先端ノズルを備え前記大型筒円筒型気密空間と前記蒸発器を連結する第二連結管を内蔵する複数個の第二の気密性柱部材と、円筒状に交互に配置された複数個の円筒状深層水貯蔵浮体部材と円筒状表層水貯蔵浮体部材に内蔵された複数個の前記凝縮器と隣の複数個の前記蒸発器を連結する作動流体連結管を内蔵する複数個の断熱性遮断結合部材と、前記円筒状深層水貯蔵浮体部材と前記円筒状表層水貯蔵浮体部材の外側に位置し５メートル以上の空気層と津波に耐えうる重量を有し引張力に耐えうる厚みと高さを備えた一個或いは二個の穴を有する浮体部材の多数個を結合部材によって結合した環状外壁浮体部材と、前記多数個の浮体部材の何れかに備えられ底部に淡水を有する浮体部材と、前記多数個の浮体部材の何れかに配置された風力発電等の自然エネルギー発電装置と、前記環状外壁浮体部材により保持された漁撈装置或いは養殖装置を具備し、前記深層水貯蔵槽内で前記内部貫通部材の上部の空気を排気し前記円筒状深層水貯蔵槽内の水面を前記円筒状深層水貯蔵槽外の水面より上部に移動させることにより前記内部貫通部材を上部に移動させ前記水排出用開口より貯蔵された深層水を前記円筒状深層水貯蔵槽の外に排出して前記ライザー管内の海水又は湖水を上部に移動させ前記深層水取水構造物内の海水又は湖水を循環することにより前記深層水取水開口より深層水を前記円筒状深層水貯蔵槽内に取水すると共に前記大型筒円筒型気密空間の作動気体空間と前記前記凝縮器を連結する前記複数個の第一の気密性部材に内蔵された第一連結管を通過した前記作動気体は前記円筒形深層水貯蔵槽内に内蔵する作動流体の凝縮器により液体の作動流体となり前記液体の作動流体は前記作動流体連結管を介し前記蒸発器を通過して気体の作動流体となり前記複数個の第二の気密性部材に内蔵された第二連結管に備えられた先端ノズルを介して大型筒円筒型気密空間に備えられた作動気体の流れにより回転する前記大型内側回転部材の略等間隔の角度の固定された回転翼に噴射すると共に前記円筒状深層水貯蔵槽から排出された深層水を前記大型筒円筒型気密空間の大型円筒内の海に排出することを特徴とする。
請求項８に記載の深層水温度差発電装置は、作動流体の気体を内蔵すると共に円筒内部は太陽光を通過させる内外径の大きな大型筒円筒型気密空間と、複数個の中間ボール或いは中間コロと前記複数個の中間ボール或いは中間コロと係合する内側壁を具備する大型外形支承部材及び前記複数個の中間ボール或いは中間コロと係合する外側壁と作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する大型内側回転部材とを備え前記大型筒円筒型気密空間内に内蔵され海面と略平行な回転体構造物と、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備える大型筒円筒状円筒深層水貯蔵槽と前記大型筒円筒状円筒深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管を具備する深層水取水構造物と前記大型筒円筒状円筒深層水貯蔵槽の内部を貫通し内部の水面が前記大型筒円筒状円筒深層水貯蔵槽外の水面と同じである際前記水排出用開口を閉鎖する比重が水より小さな円筒内部貫通部材とを有し前記大型筒円筒状円筒深層水貯蔵槽内で前記上部空気層の空気を自然エネルギー手段により排気し前記大型筒円筒状円筒深層水貯蔵槽内の水面を前記大型筒円筒状円筒深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を前記大型筒円筒状円筒深層水貯蔵槽の上部に移動させ前記水排出用開口より前記大型筒円筒状円筒深層水貯蔵槽に貯蔵された深層水を外部に排出する大型筒円筒状深層水貯蔵浮体部材と、前記大型筒円筒状円筒深層水貯蔵槽内に内蔵される作動流体の凝縮器と、前記大型筒円筒状深層水貯蔵浮体部材の大型筒円筒状円筒深層水貯蔵槽の外側に配置され底部から表層水が挿入される筒状表層水貯蔵浮体部材と、前記筒状表層水貯蔵浮体部材内に内蔵される作動流体の蒸発器と、前記大型筒円筒型気密空間の作動気体空間と前記凝縮器を連結する第一連結管を内蔵する第一の気密性部材と、前記回転翼に噴射する先端ノズルを備え前記大型筒円筒型気密空間の作動気体空間と前記蒸発器を連結する第二連結管を内蔵し円筒状略等間隔の角度で配置される複数個の第二の気密性部材と、前記蒸発器と前記凝縮器を連結する作動流体連結管を内蔵する複数個の断熱性遮断結合部材と、前記筒状表層水貯蔵浮体部材の外側に位置し海面上高さが１０メートル以上の空気層と津波に耐えうる重量を有し引張力に耐えうる厚みと高さを備えた一個或いは二個の穴を有する浮体部材の多数個を結合部材によって結合した環状外壁浮体部材と、前記多数個の浮体部材の何れかに備えられ底部に淡水を有する浮体部材と、前記多数個の浮体部材の何れかに配置された風力発電等の自然エネルギー装置と、前記環状外壁浮体部材により保持された漁撈装置或いは養殖装置と、前記大型筒円筒型気密空間の円筒内で前記水排出用開口より前記大型筒円筒状円筒深層水貯蔵槽から排出された深層水を貯蔵し貯蔵された前記深層水を大型円筒内の海に排出する深層水貯蔵装置と、前記環状外壁浮体部材を結合部材によって結合した鎖状環状外壁浮体部材をを具備し、前記大型筒円筒状円筒深層水貯蔵槽内で前記円筒内部貫通部材の上部の空気を排気し前記大型筒円筒状円筒深層水貯蔵槽内の水面を前記大型筒円筒状円筒深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を上部に移動させ前記水排出用開口より貯蔵された深層水を前記大型筒円筒型気密空間の大型円筒内の海に排出して前記ライザー管内の海水又は湖水を上部に移動させ前記大型筒円筒状深層水貯蔵浮体部材内の海水又は湖水を循環することにより前記深層水取水開口より深層水を前記大型筒円筒状円筒深層水貯蔵槽内に取水すると共に前記大型筒円筒型気密空間と前記凝縮器を連結する複数の前記第一連結管を通過した前記作動気体が前記大型筒円筒状円筒深層水貯蔵槽内に内蔵する前記凝縮器により液体の作動流体となり、前記液体の作動流体は前記作動流体連結管を介して前記円筒状表層水貯蔵浮体部材に内蔵された複数の前記蒸発器を通過して気体の作動流体となり複数個の前記第二連結管に備えられた先端ノズルを介して大型内側回転部材の略等間隔の角度の固定された前記回転翼に噴射すると共に前記深層水貯蔵装置から排出された深層水を前記大型筒円筒型気密空間の大型円筒内の海に排出することを特徴とする 。
請求項９に記載の深層水温度差発電装置は、作動流体深層水に通過する凝縮器と、作動流体ガ表層水に通過する蒸発器と、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備え前記凝縮器を内蔵する円筒状深層水貯蔵槽と前記円筒状深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管と前記円筒状深層水貯蔵槽の内部を貫通し内部の水面が前記円筒状深層水貯蔵槽外の水面と同じである際前記水排出用開口を閉鎖する比重が水より小さな円筒内部貫通部材とを具備し前記円筒状深層水貯蔵槽内で前記上部空気層の空気を自然エネルギー手段により排気し前記深層水貯蔵槽内の水面を前記深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を前記円筒状深層水貯蔵槽の上部に移動させ前記水排出用開口より前記円筒状深層水貯蔵槽に貯蔵された深層水を外部に排出する円筒状深層水貯蔵浮体部材と 、底部から挿入される表層水を自然エネルギー発電手段により加熱する加熱手段と前記蒸発器を内蔵する円筒状表層水貯蔵浮体部材と、複数個の前記円筒状深層水貯蔵浮体部材及び前記円筒状表層水貯蔵浮体部材を円筒状に交互に配置する大型筒円筒状外形円筒浮体部材群と、作動流体の気体を内蔵する内外径の大きな大型筒円筒型気密空間と、複数個の中間ボール或いは中間コロと前記複数個の中間ボール或いは中間コロと係合する内側壁を具備する大型外形支承部材及び前記複数個の中間ボール或いは中間コロと係合する外側壁と作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する大型内側回転部材とを備え前記大型筒円筒型気密空間内に内蔵された海面と略平行な回転体構造物と、前記大型内側回転部材の回転と歯車連動によりに連動する磁石及びコイルが配置され電磁誘導により公知の如く発電する発電装置と、、前記大型筒円筒型気密空間の下部に配置された前記大型筒円筒状外形円筒浮体部材群と、前記大型筒円筒型気密空間と複数個の前記円筒状深層水貯蔵浮体部材に内蔵された前記凝縮器を連結する第一連結管を内蔵する複数個の第一の気密性柱部材と、前記回転翼に噴射する先端ノズルを備え前記大型筒円筒型気密空間と前記蒸発器を連結する第二連結管を内蔵する複数個の第二の気密性柱部材と、円筒状に交互に配置された複数個の円筒状深層水貯蔵浮体部材と円筒状表層水貯蔵浮体部材に内蔵された複数個の前記凝縮器と隣の複数個の前記蒸発器を連結する作動流体連結管を内蔵する複数個の断熱性遮断結合部材と、前記円筒状深層水貯蔵浮体部材と前記円筒状表層水貯蔵浮体部材の外側に位置し海面上高さが１０メートル以上の空気層と津波に耐えうる重量を有し引張力に耐えうる厚みと高さを備えた一個或いは二個の穴を有する浮体部材の多数個を結合部材によって結合した環状外壁浮体部材と、前記多数個の浮体部材の何れかに備えられ底部に淡水を有する浮体部材と、前記多数個の浮体部材の何れかに配置された風力発電等の自然エネルギー発電装置と、前記環状外壁浮体部材により保持された漁撈装置或いは養殖装置と、前記水排出用開口より前記円筒状深層水貯蔵槽から排出された深層水を貯蔵し貯蔵された前記深層水を前記大型筒円筒型気密空間の大型円筒内の海に排出する深層水貯蔵装置と、前記環状外壁浮体部材を結合部材によって結合した鎖状環状外壁浮体部材をを具備し、前記円筒状深層水貯蔵槽内で前記円筒内部貫通部材の上部の空気を排気し前記円筒状深層水貯蔵槽内の水面を前記円筒状深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を上部に移動させ前記水排出用開口より貯蔵された深層水を前記円筒状深層水貯蔵槽の外に排出して前記ライザー管内の海水又は湖水を上部に移動させ前記円筒状深層水貯蔵浮体部材内の海水又は湖水を循環することにより前記深層水取水開口より深層水を前記円筒状深層水貯蔵槽内に取水すると共に前記大型筒円筒型気密空間と前記凝縮器を連結する複数の前記第一連結管を通過した前記作動気体が前記円筒状深層水貯蔵槽内に内蔵する前記凝縮器により液体の作動流体となり、前記液体の作動流体は前記作動流体連結管を介して前記円筒状表層水貯蔵浮体部材に内蔵された複数の前記蒸発器を通過して気体の作動流体となり複数個の前記第二連結管に備えられた先端ノズルを介して大型内側回転部材の略等間隔の角度の固定された前記回転翼に噴射すると共に前記円筒状深層水貯蔵槽から排出された深層水を前記大型筒円筒型気密空間の大型円筒内の海に排出することを特徴とする 。
請求項１０に記載の深層水温度差発電装置は、作動流体ガ深層水に通過する凝縮器と、作動流体ガ表層水に通過する蒸発器と、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備え前記凝縮器を内蔵する円筒状深層水貯蔵槽と前記円筒状深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管と前記円筒状深層水貯蔵槽の内部を貫通し内部の水面が前記円筒状深層水貯蔵槽外の水面と同じである際前記水排出用開口を閉鎖する比重が水より小さな円筒内部貫通部材とを具備し前記円筒状深層水貯蔵槽内で前記上部空気層の空気を自然エネルギー手段により排気し前記深層水貯蔵槽内の水面を前記深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を前記円筒状深層水貯蔵槽の上部に移動させ前記水排出用開口より前記円筒状深層水貯蔵槽に貯蔵された深層水を外部に排出する円筒状深層水貯蔵浮体部材と 、底部から挿入される表層水を自然エネルギー発電手段により加熱する加熱手段と前記蒸発器を内蔵する円筒状表層水貯蔵浮体部材と、複数個の前記円筒状深層水貯蔵浮体部材及び前記円筒状表層水貯蔵浮体部材を円筒状に交互に配置する大型筒円筒状外形円筒浮体部材群と、作動流体の気体を内蔵する内外径の大きな大型筒円筒型気密空間と、複数個の中間ボール或いは中間コロと前記複数個の中間ボール或いは中間コロと係合する内側壁を具備する大型外形支承部材及び前記複数個の中間ボール或いは中間コロと係合する外側壁と作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する大型内側回転部材とを備え前記大型筒円筒型気密空間内に内蔵された海面と略平行な回転体構造物と、前記大型内側回転部材の回転と歯車連動によりに連動する磁石及びコイルが配置され電磁誘導により公知の如く発電する発電装置と、前記大型筒円筒型気密空間の下部に配置された前記大型筒円筒状外形円筒浮体部材群と、前記大型筒円筒型気密空間と複数個の前記円筒状深層水貯蔵浮体部材に内蔵された前記凝縮器を連結する第一連結管を内蔵する複数個の第一の気密性柱部材と、前記回転翼に噴射する先端ノズルを備え前記大型筒円筒型気密空間と前記蒸発器を連結する第二連結管を内蔵する複数個の第二の気密性柱部材と、円筒状に交互に配置された複数個の円筒状深層水貯蔵浮体部材と円筒状表層水貯蔵浮体部材に内蔵された複数個の前記凝縮器と隣の複数個の前記蒸発器を連結する作動流体連結管を内蔵する複数個の断熱性遮断結合部材と、前記円筒状深層水貯蔵浮体部材と前記円筒状表層水貯蔵浮体部材の外側に位置し海面上高さが１０メートル以上の空気層と津波に耐えうる重量を有し引張力に耐えうる厚みと高さを備えた一個或いは二個の穴を有する浮体部材の多数個を結合部材によって結合した環状外壁浮体部材と、前記多数個の浮体部材の何れかに備えられ底部に淡水を有する浮体部材と、前記多数個の浮体部材の何れかに配置された風力発電等の自然エネルギー発電装置と、前記水排出用開口より前記円筒状深層水貯蔵槽から排出された深層水を貯蔵し貯蔵された前記深層水を大型円筒内の海に排出する深層水貯蔵装置と、前記環状外壁浮体部材を結合部材によって結合した鎖状環状外壁浮体部材をを具備し、前記円筒状深層水貯蔵槽内で前記円筒内部貫通部材の上部の空気を排気し前記円筒状深層水貯蔵槽内の水面を前記円筒状深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を上部に移動させ前記水排出用開口より貯蔵された深層水を前記円筒状深層水貯蔵槽の外に排出して前記ライザー管内の海水又は湖水を上部に移動させ前記円筒状深層水貯蔵浮体部材内の海水又は湖水を循環することにより前記深層水取水開口より深層水を前記円筒状深層水貯蔵槽内に取水すると共に前記大型筒円筒型気密空間と前記凝縮器を連結する複数の前記第一連結管を通過した前記作動気体が前記円筒状深層水貯蔵槽内に内蔵する前記凝縮器により液体の作動流体となり、前記液体の作動流体は前記作動流体連結管を介して前記円筒状表層水貯蔵浮体部材に内蔵された複数の前記蒸発器を通過して気体の作動流体となり複数個の前記第二連結管に備えられた先端ノズルを介して大型内側回転部材の略等間隔の角度の固定された前記回転翼に噴射すると共に前記円筒状深層水貯蔵槽から排出された深層水を前記大型筒円筒型気密空間の大型円筒内の海に排出する。
請求項1１に記載の深層水温度差発電装置は、前記環状外壁浮体部材を結合部材によって結合した鎖状環状外壁浮体部材を具備する請求項８〜１０のいずれか一項に記載の深層水温度差発電津波対策鎖状環状装置である。
The present invention comprises a deep water storage tank having a large outer diameter at one upper end and a water discharge opening on the water surface, and a riser pipe having a deep water intake opening at the other end below the deep water storage tank A large-scale cylindrical water intake structure with a large cylindrical shape that draws deep-layer water with low energy and enables large power generation by a large internal rotating member that is rotated by the flow of working gas provided in a large-cylindrical cylindrical airtight space A deep water temperature difference power generation device is provided.
The deep water temperature difference power generation device according to claim 1 is a large cylindrical cylindrical airtight space having a large inner and outer diameter containing a working fluid gas, a plurality of intermediate balls or intermediate rollers, and the plurality of intermediate balls or intermediate A large-sized outer support member having an inner wall engaged with a roller and an outer wall engaged with the plurality of intermediate balls or intermediate rollers and a rotating blade fixed at substantially equal intervals for rotation by the flow of working gas A rotating body structure built in the large cylindrical cylindrical airtight space and having a large inner and outer diameter at the upper end of the upper air layer and the upper air layer. A large cylindrical cylindrical cylindrical deep water storage tank having an upper air discharge opening and a water discharge opening on the surface of the water, and a deep water intake at the other end of the large cylindrical cylindrical cylindrical deep water storage tank Riser tube with opening A deep water intake structure having a large cylindrical cylindrical cylindrical deep water storage tank, and the water surface inside is the same as the water surface outside the large cylindrical cylindrical cylindrical deep water storage tank. A cylindrical internal penetrating member having a specific gravity that closes the opening smaller than that of water, and exhausts the air in the upper air layer by natural energy means in the large cylindrical cylindrical cylindrical deep water storage tank. By moving the water surface in the storage tank above the water surface outside the large cylindrical cylindrical cylindrical deep water storage tank, the cylindrical inner penetrating member is moved to the upper part of the large cylindrical cylindrical cylindrical deep water storage tank and the water discharge is performed. A large cylindrical cylindrical deep water storage floating body member for discharging the deep water stored in the large cylindrical cylindrical cylindrical deep water storage tank to the outside from the opening for use, and the large cylindrical cylindrical cylindrical deep water storage tank. Working fluid condenser and front A cylindrical surface water storage floating body member that is arranged outside the large cylinder cylindrical cylindrical deep water storage tank of the large cylinder cylindrical deep water storage floating body member and into which surface water is inserted from the bottom, and the inside of the cylindrical surface water storage floating body member A working fluid evaporator, a first airtight member having a first connecting pipe connecting the condenser and the working gas space of the large cylindrical cylindrical airtight space, and jetting to the rotor blades A plurality of second airtight members, each having a tip nozzle, and having a second connecting pipe for connecting the working gas space of the large cylindrical cylindrical airtight space and the evaporator; A working fluid connecting pipe for connecting the evaporator and the condenser, and exhausting the air above the cylindrical inner penetrating member in the large cylindrical cylindrical cylindrical deep water storage tank to exhaust the large cylindrical cylindrical cylindrical layer The water surface in the water storage tank is stored in the large cylindrical cylindrical deep water reservoir. By moving the cylindrical inner penetrating member upward by moving it from the water surface outside the tank, the deep water stored from the water discharge opening is discharged out of the large cylindrical cylindrical cylindrical deep water storage tank, and By moving seawater or lake water in the riser pipe upward and circulating seawater or lake water in the deep water intake structure, deep water is taken into the large cylindrical cylindrical deep water storage tank from the deep water intake opening. The working gas that has passed through the first connecting pipe that connects the working gas space of the large cylindrical cylindrical airtight space and the condenser is operated by the condenser in the large cylindrical cylindrical cylindrical deep water storage tank. The liquid working fluid passes through the evaporator built in the cylindrical surface water storage floating body member via the working fluid connection pipe and becomes a gaseous working fluid, and the tip provided in the second connection pipe No Injecting into the said rotary blade fixed at the angle of the substantially equal interval of the said large-sized inner side rotation member via a slip.
The deep water temperature difference power generation device according to claim 2 is provided with a condenser passing through the working fluid gas deep water, an evaporator passing through the working fluid gas surface water, a large inner and outer diameter at one upper portion, and an upper air A cylindrical deep water storage tank having an upper air discharge opening for discharging air from the upper layer and the upper air layer and a water discharge opening on the water surface and containing the condenser; and a lower part of the cylindrical deep water storage tank When the riser pipe having the deep water intake opening at the other end and the inside of the cylindrical deep water storage tank pass through and the water surface inside is the same as the water surface outside the cylindrical deep water storage tank, the water discharge opening is opened. A cylindrical inner penetrating member having a specific gravity that is smaller than that of water; the air in the upper air layer is exhausted by natural energy means in the cylindrical deep water storage tank, and the water surface in the deep water storage tank is stored in the deep water storage Move it to the top of the water surface outside the tank. A cylindrical deep water storage floating member for moving a cylindrical inner penetrating member to an upper part of the cylindrical deep water storage tank and discharging the deep water stored in the cylindrical deep water storage tank to the outside through the water discharge opening; Surface water inserted from the bottom, cylindrical surface water storage floating body member containing the evaporator, a plurality of cylindrical deep water storage floating body members and cylindrical surface water storage floating body members are alternately arranged in a cylindrical shape A large cylindrical cylindrical outer cylinder floating member group, a large cylindrical cylindrical airtight space having a large inner and outer diameter containing a working fluid gas, a plurality of intermediate balls or intermediate rollers, and the plurality of intermediate balls or intermediate rollers. A large-sized outer support member having an inner wall to be engaged, an outer wall to be engaged with the plurality of intermediate balls or intermediate rollers, and a rotating blade fixed at substantially equal intervals for rotation by the flow of working gas. You A rotating body structure having a large inner rotating member and being substantially parallel to the sea surface incorporated in the large cylindrical airtight space, and a magnet and a coil interlocking with the rotation of the large inner rotating member and the gear interlocking are arranged. A power generation device that generates electric power in a known manner by electromagnetic induction, the large cylindrical cylindrical outer cylindrical floating member group disposed below the large cylindrical cylindrical airtight space, the large cylindrical cylindrical airtight space, and the plurality of cylinders A large cylindrical cylinder having a plurality of first airtight column members having a first connection pipe connecting the condenser built in a deep water storage floating member, and a tip nozzle for injecting the rotor blade A plurality of second airtight column members containing a second connection pipe connecting the airtight space and the evaporator, a plurality of cylindrical deep water storage floating members and a cylindrical surface layer alternately arranged in a cylindrical shape Before built in the water storage floating member A plurality of heat-insulating cut-off and coupling members containing a working fluid connecting pipe connecting the condenser and the adjacent evaporator; and exhausting air above the cylindrical inner penetrating member in the cylindrical deep water storage tank Deep water stored in the water discharge opening by moving the cylindrical inner penetrating member upward by moving the water surface in the cylindrical deep water storage tank upward from the water surface outside the cylindrical deep water storage tank. Is discharged from the cylindrical deep water storage tank, and the seawater or lake water in the riser pipe is moved upward to circulate the seawater or lake water in the plurality of cylindrical deep water storage floating members. The working gas that has taken deep water from the water intake opening into the cylindrical deep water storage tank and has passed through the plurality of first connecting pipes connecting the large cylindrical airtight space and the condenser is the cylindrical deep layer. Inside the water storage tank The plurality of condensers to be stored serve as liquid working fluid, and the liquid working fluid passes through the plurality of evaporators built in the cylindrical surface water storage floating body member via the working fluid connection pipe. A gas working fluid is injected into the rotating blades of the large inner rotating member fixed at substantially equal intervals through the tip nozzles provided in the plurality of second connecting pipes.
The deep water temperature difference power generation device according to claim 3 is a large cylinder-cylindrical airtight space having a large inner and outer diameter containing a working fluid gas, a plurality of intermediate balls or intermediate rollers, and the plurality of intermediate balls or intermediate A large-sized outer support member having an inner wall engaged with a roller and an outer wall engaged with the plurality of intermediate balls or intermediate rollers and a rotating blade fixed at substantially equal intervals for rotation by the flow of working gas A rotating body structure substantially parallel to the sea surface built in the large cylindrical cylindrical airtight space, and a large inner and outer diameter at the upper end of the upper air layer and the upper air. A deep water storage tank having an upper air discharge opening for discharging layer air and a water discharge opening on the water surface, and a riser pipe having a deep water intake opening at the other end at the lower part of the deep water storage tank Deep water intake structure The deep water having an internal penetrating member penetrating the inside of the deep water storage tank and closing the water discharge opening when the internal water surface is the same as the water surface outside the deep water storage tank, and having a smaller specific gravity than water The upper air in the storage tank is exhausted by natural energy means, and the inner penetrating member is moved to the upper part of the deep water storage tank by moving the water surface in the deep water storage tank upward from the water surface outside the deep water storage tank. A deep water storage floating body member that moves to the outside and discharges deep water stored in the deep water storage tank from the water discharge opening, and a surface water storage floating body member that contains surface water inserted from the bottom, A working fluid condenser built in a deep water storage tank, a working fluid evaporator built in the surface water storage floating body member, a large cylindrical cylindrical airtight space, and a condenser connecting the condenser. Plural with one connecting pipe A plurality of deep water storage floating members, which are coupled by a first airtight member and arranged at an angle of substantially equal intervals with the working gas space of the large cylindrical cylindrical airtight space, and a plurality of the deep water storage An air exhaust means connected to the air discharge opening of the floating member and exhausting the upper air in the deep water storage tank by natural energy power generation means, and a large cylindrical cylindrical airtight space provided with a tip nozzle for injecting the rotor A plurality of the surface waters connected by a plurality of second airtight members containing a second connecting pipe for connecting the evaporator and disposed at an angle of the cylindrical cylindrical airtight space and a cylindrical shape at substantially equal intervals. A storage fluid member, and a working fluid connecting pipe that connects the evaporator and the adjacent condenser, exhausting the air above the internal penetrating member in the deep water storage tank, and in the deep water storage tank Outside the deep water storage tank The inner penetrating member is moved upward by moving the inner penetrating member upward from the water surface of the water, and the deep water stored from the water discharge opening is discharged out of the deep water storage tank, and the seawater or lake water in the riser pipe is And by circulating the seawater or lake water in the deep water intake structure, the deep water is taken into the deep water storage tank through the deep water intake opening, and the working gas space of the large cylindrical airtight space and The working gas that has passed through the first connecting pipes built in the plurality of first airtight members that connect the condenser becomes a liquid working fluid by the condenser built in the deep water storage tank, The liquid working fluid passes through the evaporator through the working fluid connection pipe to become a gas working fluid, and has a tip nozzle provided in a second connection pipe built in the plurality of second airtight members. Through Characterized by injecting said rotor blades are fixed in a substantially equally spaced angles of a large inner rotating member.
5. The deep water temperature difference power generation device according to claim 4, wherein the plurality of deep water storage floating members disposed at substantially equal intervals between the large cylindrical cylindrical airtight space and the large cylindrical cylindrical airtight space; A plurality of the surface water storage float members arranged at substantially equal intervals between the space and the cylinder, and the heat insulating breaker coupling member for joining the deep water storage float member and the adjacent surface water storage float member adjacent thereto. Claims 2 to 3 In any one of Depth water temperature difference power generator described Is .
The deep water temperature difference power generation device according to claim 5 includes a large cylinder-cylindrical airtight space having a large inner and outer diameter and a plurality of intermediate balls or intermediate rollers. And a large external bearing member having an inner wall engaged with the plurality of intermediate balls or intermediate rollers, and an outer wall engaged with the plurality of intermediate balls or intermediate rollers and rotating by the flow of working gas, etc. A large-sized inner rotating member having rotating blades fixed at an interval angle, and a rotating body structure substantially parallel to the sea surface incorporated in the large cylindrical airtight space, and a large inner and outer diameter at the upper end of one end. A large cylindrical cylindrical cylindrical deep water storage tank having an upper air layer, an upper air discharge opening for discharging air from the upper air layer, and a water discharge opening on the water surface, and the large cylindrical cylindrical cylindrical deep water storage At the bottom of the tank Deep water intake structure having a riser pipe with deep water intake opening at the end and the inside of the large cylindrical cylindrical cylindrical deep water storage tank, and the water surface inside is outside the large cylindrical cylindrical cylindrical deep water storage tank A cylindrical inner penetrating member having a specific gravity smaller than that of water for closing the water discharge opening when the water surface is the same as the water surface of the large cylinder cylindrical cylindrical deep water storage tank. The cylindrical internal penetrating member is moved to the upper part of the large cylindrical cylindrical cylindrical deep layer by moving the water surface in the large cylindrical cylindrical cylindrical deep water storage tank upward from the water surface outside the large cylindrical cylindrical deep water storage tank. A large cylindrical cylindrical deep water storage floating member that moves to the upper part of the water storage tank and discharges the deep water stored in the large cylindrical cylindrical deep water storage tank from the water discharge opening, and the large cylindrical cylinder Cylindrical deep water storage A condenser for working fluid incorporated in the inside, and a cylindrical surface water storage in which the surface water is inserted from the bottom disposed outside the large cylindrical cylindrical cylindrical deep water storage tank of the large cylindrical cylindrical deep water storage floating body member A floating member, a working fluid evaporator built in the cylindrical surface water storage floating member, and a first connecting pipe that connects the working gas space of the large cylindrical airtight space and the condenser are built in. One airtight member and a tip nozzle that injects into the rotor blade, and a second connecting pipe that connects the working gas space of the large cylindrical airtight space and the evaporator are built in at substantially cylindrical angles. A plurality of second hermetic members arranged, and a working fluid connection pipe for connecting the evaporator and the condenser, and the cylindrical inner penetrating member in the large cylindrical cylindrical cylindrical deep water storage tank. The upper air is exhausted and inside the large cylindrical cylindrical deep water storage tank By moving the cylindrical inner penetrating member upward by moving the water surface of the large cylindrical cylindrical cylindrical deep water storage tank above the water surface of the large cylindrical cylinder deep water stored in the large cylindrical cylinder By discharging the seawater or lake water in the riser pipe to the upper part by discharging it outside the cylindrical deep water storage tank and circulating the seawater or lake water in the deep water intake structure, deep water is released from the deep water intake opening through the large-scale water. The large cylinder cylindrical cylindrical deep layer is drawn into the cylindrical cylindrical cylindrical deep water storage tank and the working gas passing through the first connecting pipe connecting the condenser and the working gas space of the large cylindrical cylindrical airtight space. The condenser in the water storage tank becomes a liquid working fluid, and the liquid working fluid passes through the evaporator built in the cylindrical surface water storage floating body member via the working fluid connecting pipe to operate the gas. fluid The deep water discharged from the deep water storage tank and sprayed to the rotating blades fixed at substantially equal intervals of the large inner rotating member through the tip nozzle provided in the second connecting pipe It is characterized by discharging into the sea in the large cylinder of the large cylinder cylindrical airtight space.
The deep water temperature difference power generation device according to claim 6 is provided with a condenser that passes through the working fluid gas deep water, an evaporator that passes through the working fluid gas surface water, a large inner and outer diameter at one upper portion, and an upper air A cylindrical deep water storage tank having an upper air discharge opening for discharging air from the upper layer and the upper air layer and a water discharge opening on the water surface and containing the condenser; and a lower part of the cylindrical deep water storage tank When the riser pipe having the deep water intake opening at the other end and the inside of the cylindrical deep water storage tank pass through and the water surface inside is the same as the water surface outside the cylindrical deep water storage tank, the water discharge opening is opened. A cylindrical inner penetrating member having a specific gravity that is smaller than that of water; the air in the upper air layer is exhausted by natural energy means in the cylindrical deep water storage tank, and the water surface in the deep water storage tank is stored in the deep water storage Move it to the top of the water surface outside the tank. A cylindrical deep water storage floating member for moving a cylindrical inner penetrating member to an upper part of the cylindrical deep water storage tank and discharging the deep water stored in the cylindrical deep water storage tank to the outside through the water discharge opening; Heating means for heating surface water inserted from the bottom by natural energy power generation means, cylindrical surface water storage float member incorporating the evaporator, a plurality of cylindrical deep water storage float members and cylindrical surface water Large cylindrical cylindrical floating body member group that alternately arranges storage floating body members in a cylindrical shape, and a large cylindrical cylinder type that has a large inner and outer diameter that is substantially parallel to the sea surface through which the working fluid gas is contained and the sunlight passes through the cylinder. A large external bearing member having an airtight space, a plurality of intermediate balls or intermediate rollers, and an inner wall engaged with the plurality of intermediate balls or intermediate rollers, and the plurality of intermediate balls or intermediate rollers An outer wall to be engaged, and a large inner rotating member having rotating blades fixed at substantially equal intervals for rotation by the flow of working gas, and substantially the sea surface built in the large cylindrical airtight space A parallel rotating body structure, a power generation device that generates magnets and coils that are interlocked with the rotation of the large inner rotating member and the gear interlocking, and generates electric power in a known manner by electromagnetic induction, and a lower part of the large cylindrical airtight space The large cylindrical cylindrical outer floating member group arranged, and the first connecting pipe for connecting the condenser incorporated in the large cylindrical cylindrical airtight space and a plurality of the cylindrical deep water storage floating member are incorporated. A plurality of second hermetic cylinder members having a plurality of first hermetic column members and a second connecting pipe that includes a tip nozzle that injects the rotor blade and connects the large cylindrical airtight space and the evaporator. Intersects with a cylindrical column A plurality of cylindrical deep-layer water storage floating body members arranged in the cylinder and a plurality of heat insulating properties including a working fluid connection pipe connecting the condenser built in the cylindrical surface water storage floating body member and the adjacent evaporator A thickness and high thickness capable of withstanding a tensile force, having a weight capable of withstanding an air layer of 5 meters or more and a tsunami, located on the outside of the cylindrical deep-layer water storage floating body member and the cylindrical surface-layer water storage floating body member An annular outer wall floating member in which a large number of floating members having one or two holes having a thickness are coupled by a coupling member, and a floating member having fresh water at the bottom provided in any of the numerous floating members; A natural energy power generation device such as wind power generation disposed in any of the multiple floating members, and a fishing device or aquaculture device held by the annular outer wall floating member, and in the cylindrical deep water storage tank Inside the cylinder By exhausting the air above the penetrating member and moving the water surface in the cylindrical deep water storage tank upward from the water surface outside the cylindrical deep water storage tank, the cylindrical internal penetrating member is moved upward to discharge the water. The deep water stored from the opening for use is discharged out of the cylindrical deep water storage tank, and the seawater or lake water in the riser pipe is moved upward to circulate the seawater or lake water in the cylindrical deep water storage floating member. Thus, the operation of taking deep water from the deep water intake opening into the cylindrical deep water storage tank and passing through the plurality of first connection pipes connecting the large cylindrical airtight space and the condenser. Gas becomes a working fluid of the liquid by the condenser built in the cylindrical deep water storage tank, and the working fluid of the liquid is incorporated into the cylindrical surface water storage floating body member through the working fluid connecting pipe. Before It passes through the evaporator and becomes a gaseous working fluid and is injected to the rotary blades fixed at substantially equal intervals of the large inner rotary member through the tip nozzles provided in the plurality of second connection pipes, and Deep water discharged from the cylindrical deep water storage tank is discharged to the sea in the large cylinder of the large cylinder cylindrical airtight space.
The deep water temperature difference power generation device according to claim 7 includes a condenser that passes through the working fluid gas deep water, an evaporator that passes through the working fluid gas surface water, a large inner and outer diameter at one upper portion, and an upper air A cylindrical deep water storage tank having an upper air discharge opening for discharging air from the upper layer and the upper air layer and a water discharge opening on the water surface and containing the condenser; and a lower part of the cylindrical deep water storage tank When the riser pipe having the deep water intake opening at the other end and the inside of the cylindrical deep water storage tank pass through and the water surface inside is the same as the water surface outside the cylindrical deep water storage tank, the water discharge opening is opened. A cylindrical inner penetrating member having a specific gravity that is smaller than that of water; the air in the upper air layer is exhausted by natural energy means in the cylindrical deep water storage tank, and the water surface in the deep water storage tank is stored in the deep water storage Move it to the top of the water surface outside the tank. A cylindrical deep water storage floating member for moving a cylindrical inner penetrating member to an upper part of the cylindrical deep water storage tank and discharging the deep water stored in the cylindrical deep water storage tank to the outside through the water discharge opening; Heating means for heating surface water inserted from the bottom by natural energy power generation means, cylindrical surface water storage float member incorporating the evaporator, a plurality of cylindrical deep water storage float members and cylindrical surface water Large cylinder cylindrical outer cylinder floating member group in which storage floating members are alternately arranged in a cylindrical shape, and a large cylindrical cylinder having a large inner and outer diameter substantially parallel to the sea surface through which the gas inside the working fluid is contained and the sunlight passes. A large external bearing member having a mold airtight space, a plurality of intermediate balls or intermediate rollers, and an inner wall engaged with the plurality of intermediate balls or intermediate rollers, and the plurality of intermediate balls or intermediate A sea surface built in the large cylindrical cylindrical airtight space, comprising an outer wall engaged with the inner wall and a large inner rotating member having rotating blades fixed at substantially equal angles for rotation by the flow of working gas A rotating body structure that is substantially parallel to the rotating body, a magnet and a coil that are interlocked with the rotation of the large inner rotating member and the gear interlocking, and a power generation device that generates electric power in a known manner by electromagnetic induction; Cylindrical type A large cylinder cylindrical outer cylinder floating body member group arranged in a lower part of the airtight space, a large cylinder cylindrical airtight space and a plurality of the condensers built in the cylindrical deep water storage floating body member are connected. A plurality of first airtight column members containing one connecting pipe and a plurality of built-in second connecting pipes for connecting the large cylindrical airtight space and the evaporator with a tip nozzle for spraying the rotor blades A plurality of second hermetic column members, a plurality of cylindrical deep water storage floating members arranged alternately in a cylindrical shape, and a plurality of the condensers built in the cylindrical surface water storage floating member. A plurality of adiabatic shutoff coupling members having a working fluid connection pipe connecting a plurality of the evaporators, 5 m located outside the cylindrical deep water storage floating member and the cylindrical surface water storage floating member; Has the weight to withstand the above air layer and tsunami and has a tensile force An annular outer wall floating member in which a large number of floating members having one or two holes having a thickness and a height that can withstand are coupled by a coupling member, and fresh water is provided at the bottom of the floating member. A deep water storage device comprising: a floating member having a natural energy power generation device such as a wind power generator disposed on any of the plurality of floating members; and a fishing device or an aquaculture device held by the annular outer wall floating member. The internal penetrating member is moved upward by exhausting the air above the internal penetrating member in the tank and moving the water surface in the cylindrical deep water storage tank above the water surface outside the cylindrical deep water storage tank. Then, the deep water stored from the water discharge opening is discharged out of the cylindrical deep water storage tank, and the seawater or lake water in the riser pipe is moved to the upper part to move the seawater or lake water in the deep water intake structure. Circulating the deep water from the deep water intake opening into the cylindrical deep water storage tank and connecting the working gas space of the large cylindrical airtight space and the condenser. The working gas that has passed through the first connecting pipe built in the airtight member becomes a liquid working fluid by the working fluid condenser built in the cylindrical deep water storage tank, and the liquid working fluid becomes the working fluid. A large cylinder-cylindrical airtight space is formed through a tip nozzle provided in a second connection pipe built in the plurality of second airtight members by passing through the evaporator through the evaporator and becoming a gaseous working fluid. The large inner rotating member that is rotated by the flow of the working gas provided is injected onto the rotating blades that are fixed at substantially equal angles. Cylindrical Deep water discharged from a deep water storage tank Tube Circle Tube It is characterized by discharging into the sea in a large cylinder in a mold-tight space.
The deep water temperature difference power generation device according to claim 8 includes a large cylindrical airtight space having a large inner and outer diameter, and a plurality of intermediate balls or intermediate rollers. And a large external bearing member having an inner wall engaged with the plurality of intermediate balls or intermediate rollers, and an outer wall engaged with the plurality of intermediate balls or intermediate rollers and rotating by the flow of working gas, etc. A large-sized inner rotating member having a rotor blade with a fixed interval angle, and a rotating structure built in the large cylindrical airtight space and substantially parallel to the sea surface, and a large inner and outer diameter at one upper end. A large cylindrical cylindrical cylindrical deep water storage tank and a large cylindrical cylindrical cylindrical deep water storage tank having an upper air layer, an upper air discharge opening for discharging air from the upper air layer, and a water discharge opening on the water surface Other at the bottom of A deep water intake structure including a riser pipe having a deep water intake opening and a large cylindrical cylindrical cylindrical deep water storage tank, and an internal water surface is outside the large cylindrical cylindrical cylindrical deep water storage tank. A cylindrical inner penetrating member having a specific gravity smaller than that of water for closing the water discharge opening when the water surface is the same as the water surface, and the air in the upper air layer is generated by natural energy means in the large cylindrical cylindrical cylindrical deep water storage tank. By exhausting and moving the water surface in the large cylindrical cylindrical cylindrical deep water storage tank above the water surface outside the large cylindrical cylindrical deep water storage tank, the cylindrical internal penetrating member is moved into the large cylindrical cylindrical cylindrical deep water. A large cylindrical cylindrical deep water storage floating member that moves to the upper part of the storage tank and discharges deep water stored in the large cylindrical cylindrical deep water storage tank from the water discharge opening, and the large cylindrical cylinder Cylindrical deep water storage tank And a cylindrical surface water storage floating body in which surface water is inserted from the bottom portion disposed outside the large cylindrical cylindrical deep water storage tank of the large cylindrical cylindrical deep water storage floating body member A member, a working fluid evaporator built in the cylindrical surface water storage floating member, a first connecting pipe that connects the working gas space of the large cylindrical airtight space and the condenser. And a second connecting pipe for connecting the working gas space of the large cylindrical airtight space and the evaporator, and arranged at substantially equal angular angles. A plurality of second airtight members, a plurality of heat-insulating cut-off coupling members containing working fluid connection pipes connecting the evaporator and the condenser, and the outer surface of the cylindrical surface water storage floating member An air layer and a tsunami with a height above sea level of 10 meters An annular outer wall floating member in which a large number of floating members having one or two holes having a thickness and height capable of withstanding a tensile force and having a thickness and a height that can withstand a tensile force are coupled by a coupling member, and the plurality of floating members A floating body member having fresh water at the bottom thereof, a natural energy device such as wind power generation disposed on any of the multiple floating body members, and a fishing device or aquaculture held by the annular outer wall floating body member A deep water discharged from the large cylindrical cylindrical cylindrical deep water storage tank through the water discharge opening in the cylinder of the large cylindrical cylindrical airtight space, and the stored deep water in the large cylindrical A deep water storage device that discharges to the sea; and a chain-shaped annular outer wall floating member that is formed by coupling the annular outer wall floating member with a coupling member, and the cylindrical inner penetrating member in the large cylindrical cylindrical cylindrical deep water storage tank. Upper Exhausting the air and moving the water surface in the large cylindrical cylindrical cylindrical deep water storage tank upward from the water surface outside the large cylindrical cylindrical cylindrical deep water storage tank, thereby moving the cylindrical inner penetrating member upward and moving the water Deep water stored from the discharge opening is discharged into the large cylinder cylindrical airtight space in the large cylinder, and the seawater or lake water in the riser pipe is moved upward to move the large cylinder cylindrical deep water storage floating member inside By circulating the sea water or the lake water, the deep water is taken into the large cylindrical cylindrical cylindrical deep water storage tank from the deep water intake opening and a plurality of cylindrical cylindrical airtight spaces and the condenser are connected. The working gas that has passed through the first connecting pipe becomes a liquid working fluid by the condenser built in the large cylindrical cylindrical cylindrical deep water storage tank, and the working fluid of the liquid passes through the working fluid connecting pipe. Said A substantially equal interval between the large inner rotating members through the plurality of evaporators built in the cylindrical surface water storage floating body member to become a gaseous working fluid through the tip nozzles provided in the plurality of second connection pipes The deep water discharged from the deep water storage device is discharged to the sea in the large cylinder of the large cylinder cylindrical airtight space while being sprayed on the rotor blade fixed at an angle of.
The deep water temperature difference power generation device according to claim 9 is provided with a condenser that passes through the working fluid deep water, an evaporator that passes through the working fluid gas surface water, and a large inner and outer diameter at the top of one end. And a cylindrical deep water storage tank containing the condenser and a lower part of the cylindrical deep water storage tank, each having an upper air discharge opening for discharging air from the upper air layer and a water discharge opening on the water surface. A riser pipe with a deep water intake opening at the end and the inside of the cylindrical deep water storage tank penetrates and the water discharge opening is closed when the internal water surface is the same as the water surface outside the cylindrical deep water storage tank A cylindrical inner penetrating member having a specific gravity smaller than that of water, and the air in the upper air layer is exhausted by natural energy means in the cylindrical deep water storage tank so that the water level in the deep water storage tank is the deep water storage tank By moving it from the outside to the top A cylindrical deep water storage floating body member that moves a cylinder internal penetrating member to an upper part of the cylindrical deep water storage tank and discharges the deep water stored in the cylindrical deep water storage tank to the outside from the water discharge opening; Heating means for heating surface water inserted from the bottom by natural energy power generation means, cylindrical surface water storage float member incorporating the evaporator, a plurality of cylindrical deep water storage float members and cylindrical surface water Large cylindrical cylindrical outer cylindrical floating member group in which storage floating members are alternately arranged in a cylindrical shape, a large cylindrical cylindrical airtight space having a large inner and outer diameter containing a working fluid gas, a plurality of intermediate balls or intermediate rollers, A large-sized outer support member having an inner wall engaging with the plurality of intermediate balls or intermediate rollers and an outer wall engaging with the plurality of intermediate balls or intermediate rollers rotate by the flow of working gas. A large-sized inner rotating member having rotating blades fixed at substantially equal intervals, and a rotating body structure substantially parallel to the sea surface incorporated in the large cylindrical airtight space, and the large inner rotating member A power generator that generates magnets and coils that are linked to each other by rotation of the gears and gears, and that generates electric power in a known manner by electromagnetic induction; Cylinder A large cylindrical cylindrical outer cylinder floating body member group disposed in a lower part of the mold hermetic space, and the large cylinder cylindrical airtight space and a plurality of the condensers built in the cylindrical deep water storage floating body member are connected. A plurality of first airtight column members containing a first connection pipe, a tip nozzle for injecting the rotary blade, and a second connection pipe for connecting the large cylindrical airtight space and the evaporator are incorporated. Adjacent to the plurality of second hermetic column members, the plurality of cylindrical deep water storage floating members arranged alternately in a cylindrical shape, and the plurality of condensers built in the cylindrical surface water storage floating member. A plurality of heat-insulating cut-off coupling members containing working fluid connection pipes for connecting the plurality of evaporators, the cylindrical deep water storage floating member, and the cylindrical surface water storage floating member located outside the sea surface Can withstand an air layer and tsunami with an upper height of 10 meters or more An annular outer wall floating member in which a large number of floating members having one or two holes having a thickness and a height that can withstand a tensile force are coupled by a coupling member, and any one of the plurality of floating members A floating member having fresh water at the bottom thereof, a natural energy power generation device such as wind power generator disposed on any of the multiple floating members, and a fishing device or aquaculture device held by the annular outer wall floating member, A deep water storage device for storing deep water discharged from the cylindrical deep water storage tank through the water discharge opening and discharging the stored deep water to the sea in the large cylinder of the large cylindrical airtight space And a ring-shaped annular outer wall floating body member obtained by coupling the annular outer wall floating body member by a coupling member, and exhausting the air above the cylindrical inner penetrating member in the cylindrical deep water storage tank to exhaust the cylindrical deep water. Storage tank The deep water stored in the water discharge opening of the cylindrical deep water storage tank is moved by moving the cylindrical inner penetrating member upward by moving the water surface of the cylindrical deep water storage tank upward from the water surface outside the cylindrical deep water storage tank. Deep water is stored in the cylindrical deep water from the deep water intake opening by discharging the sea water or lake water in the riser pipe to the upper part and circulating the sea water or lake water in the cylindrical deep water storage floating member. The working gas that has taken water into the tank and that has passed through the plurality of first connection pipes that connect the large cylindrical airtight space and the condenser is incorporated in the cylindrical deep water storage tank by the condenser. The liquid working fluid is converted into a gas working fluid by passing through the plurality of evaporators built in the cylindrical surface water storage floating body member via the working fluid connection pipe. First The large cylinder is used to inject deep water discharged from the cylindrical deep water storage tank while being sprayed to the rotating blade fixed at substantially equal intervals of the large inner rotating member through a tip nozzle provided in the two connecting pipes. It is characterized by discharging into the sea inside a large cylinder in a cylindrical airtight space.
The deep water temperature difference power generation device according to claim 10 includes a condenser that passes through the working fluid gas deep water, an evaporator that passes through the working fluid gas surface water, a large inner and outer diameter at one upper portion, and an upper air A cylindrical deep water storage tank having an upper air discharge opening for discharging air from the upper layer and the upper air layer and a water discharge opening on the water surface and containing the condenser; and a lower part of the cylindrical deep water storage tank When the riser pipe having the deep water intake opening at the other end and the inside of the cylindrical deep water storage tank pass through and the water surface inside is the same as the water surface outside the cylindrical deep water storage tank, the water discharge opening is opened. A cylindrical inner penetrating member having a specific gravity that is smaller than that of water; the air in the upper air layer is exhausted by natural energy means in the cylindrical deep water storage tank, and the water surface in the deep water storage tank is stored in the deep water storage By moving it above the water surface outside the tank A cylindrical deep water storage floating member for moving the cylindrical inner penetrating member to an upper part of the cylindrical deep water storage tank and discharging the deep water stored in the cylindrical deep water storage tank to the outside from the water discharge opening; A heating means for heating the surface layer water inserted from the bottom by a natural energy power generation means, a cylindrical surface layer water storage float member incorporating the evaporator, a plurality of the cylindrical deep layer water storage float member and the cylindrical surface layer Large cylinder-cylindrical outer cylindrical floating member group in which water storage floating members are alternately arranged in a cylindrical shape, a large cylinder-cylindrical airtight space having a large inner and outer diameter containing a working fluid gas, and a plurality of intermediate balls or intermediate rollers. And a large external bearing member having an inner wall engaged with the plurality of intermediate balls or intermediate rollers and an outer wall engaged with the plurality of intermediate balls or intermediate rollers, and rotated by the flow of working gas. Therefore, a large-sized inner rotating member having rotating blades fixed at substantially equal angles is provided, and the rotating body structure is substantially parallel to the sea surface built in the large-cylindrical cylindrical airtight space. Magnet generator and coil interlocking with the rotation of the member and gear interlocking are arranged to generate power as known by electromagnetic induction, and the large cylindrical cylindrical outer cylinder floating body member disposed below the large cylindrical cylindrical airtight space A plurality of first airtight column members containing a first connecting pipe for connecting the condenser and the condenser built in the plurality of cylindrical deep-layer water storage floating body members; A plurality of second airtight column members having a tip nozzle that injects into the rotor blades and having a second connecting pipe for connecting the large cylindrical airtight space and the evaporator, and are alternately arranged in a cylindrical shape. Multiple cylindrical deep water storage A plurality of heat-insulating cut-off coupling members containing working fluid connection pipes connecting the plurality of condensers built in the body member and the cylindrical surface water storage floating body member and the plurality of adjacent evaporators; Thickness and height capable of withstanding a tensile force and having a weight capable of withstanding a tsunami and an air layer having a height of 10 meters or more on the sea surface located outside the cylindrical deep water storage floating member and the cylindrical surface water storage floating member. An annular outer wall floating member obtained by connecting a large number of floating members having one or two holes with a connecting member, a floating member having fresh water at the bottom provided in any of the multiple floating members, and Natural energy power generation apparatus such as wind power generation arranged in any of a large number of floating members, and the deep water stored and stored deep water discharged from the cylindrical deep water storage tank through the water discharge opening Is discharged into the sea in a large cylinder A deep water storage device, and a chain-like annular outer wall floating body member in which the annular outer wall floating member is coupled by a coupling member, and exhausts air above the cylindrical inner penetrating member in the cylindrical deep water storage tank. By moving the water surface in the cylindrical deep water storage tank upward from the water surface outside the cylindrical deep water storage tank, the cylindrical internal penetrating member is moved upward, and the deep water stored from the water discharge opening is stored. By discharging the seawater or lake water in the riser pipe to the upper part by discharging out of the cylindrical deep water storage tank and circulating the seawater or lake water in the cylindrical deep water storage floating body member, the deep layer from the deep water intake opening The working gas that has taken water into the cylindrical deep water storage tank and has passed through the plurality of first connection pipes that connect the large cylindrical airtight space and the condenser is inside the cylindrical deep water storage tank. Built in The condenser serves as a liquid working fluid, and the liquid working fluid passes through the plurality of evaporators built in the cylindrical surface water storage floating body member via the working fluid connection pipe and is a gaseous working fluid. It is ejected from the cylindrical deep water storage tank while being sprayed to the rotating blades fixed at substantially equal intervals of the large inner rotating member through the tip nozzles provided in the plurality of second connecting pipes. Deep water is discharged into the sea in the large cylinder of the large cylinder cylindrical airtight space.
11. The deep water temperature difference power generation device according to claim 11, further comprising: a chain-like annular outer wall floating member in which the annular outer wall floating member is coupled by a coupling member. In any one of It is a chain-like annular device for the described deep water temperature difference power generation tsunami countermeasure.
本発明の深層水温度差発電装置は、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを具備する深層水貯蔵槽を備えた深層水貯蔵浮体部材を大型筒円筒状に配置することにより深層水を少ないエネルギーでくみ上げると共に大型筒円筒型気密空間に備えられた作動気体の流れにより回転する大型内側回転部材により大電力発電が可能となる。
また本発明による深層水温度差発電環状漁業装置は、前記大型筒円筒型気密空間の円筒内部の海に深層水を排出し太陽光が大型円筒内部の海に入射しているので前記環状漁業装置内で多くの漁獲量が可能となる。
また本発明による津波対策鎖状深層水温度差発電環状漁業装置は、大型筒円筒型気密空間の外側に津波対策環状外壁浮島を配置し前記津波対策環状外壁浮島の端部を重複して複数個を鎖状に配置する津波対策鎖状環状漁業装置を提供ことにより津波の進入を緩和若しくは阻止することが可能となる。
The deep water temperature difference power generation device of the present invention has a large inner and outer diameter at the upper end of one end, and includes an upper air layer, an upper air discharge opening for discharging air from the upper air layer, and a water discharge opening on the water surface. Large-scale inner side rotating by the flow of working gas provided in the large cylinder cylindrical airtight space while pumping deep layer water with less energy by arranging the deep layer water storage floating body member with deep water storage tank The rotating member enables high power generation.
Further, the deep water temperature difference power generation annular fishery apparatus according to the present invention discharges the deep water into the sea inside the cylinder of the large cylindrical airtight space, and sunlight enters the sea inside the large cylinder. A large amount of catch is possible.
Further, the tsunami countermeasure chain-like deep water temperature difference power generation annular fishery apparatus according to the present invention includes a tsunami countermeasure annular outer wall floating island outside a large cylindrical airtight space, and a plurality of overlapping end portions of the tsunami countermeasure annular outer wall floating island overlap. It is possible to mitigate or prevent the tsunami from entering by providing a chain-shaped circular fishery device that counteracts the tsunami.
本発明による深層水温度差発電装置の第一実施例は、作動流体ガ深層水に通過する凝縮器と、作動流体ガ表層水に通過するする蒸発器と、作動流体の気体を内蔵する内外径の大きな大型筒円筒型気密空間と、複数個の中間ボール或いは中間円筒コロと前記複数個の中間ボール或いは中間円筒コロと係合する内側壁を具備する大型外形支承部材及び前記複数個の中間ボール或いは中間円筒コロと係合する外側壁と作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する大型内側回転部材とを備え前記大型筒円筒型気密空間内に内蔵された海面と略平行な回転体構造物と、前記大型内側回転部材の回転と歯車連動によりに連動する磁石及びコイルが配置され電磁誘導により公知の如く発電する発電装置と、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備え前記凝縮器を内蔵する大型筒円筒状円筒深層水貯蔵槽と前記大型筒円筒状円筒深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管を具備する深層水取水構造物と前記大型筒円筒状円筒深層水貯蔵槽の内部を貫通し内部の水面が前記大型筒円筒状円筒深層水貯蔵槽外の水面と同じである際前記水排出用開口を閉鎖する比重が水より小さな円筒内部貫通部材とを有し前記大型筒円筒状円筒深層水貯蔵槽内で前記上部空気層の空気を自然エネルギー手段により排気し前記大型筒円筒状円筒深層水貯蔵槽内の水面を前記大型筒円筒状円筒深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を前記大型筒円筒状円筒深層水貯蔵槽の上部に移動させ前記水排出用開口より前記大型筒円筒状円筒深層水貯蔵槽に貯蔵された深層水を外部に排出する大型深層水貯蔵浮体部材と、前記大型筒円筒状円筒深層水貯蔵槽の外側に配置され底部から挿入される表層水を自然エネルギー発電手段により加熱する加熱手段を内蔵する円筒状表層水貯蔵浮体部材と、前記大型筒円筒型気密空間の作動気体空間と前記凝縮器を連結する第一連結管を内蔵する例えば90度の角度で配置された4個の第一の気密性柱部材と、前記回転翼に噴射する先端ノズルを備え前記大型筒円筒型気密空間の作動気体空間と前記蒸発器を連結する第二連結管を内蔵し円筒状略等間隔の角度で配置される複数個の第二の気密性柱部材と、前記大型深層水貯蔵浮体部材と前記円筒状表層水貯蔵浮体部材を結合する例えば45度の角度で連結する8等分方向の断熱性遮断結合部材と、前記断熱性遮断結合部材の中央部に配置され前記蒸発器と前記凝縮器を連結する作動流体連結管を具備し、前記大型筒円筒状円筒深層水貯蔵槽内で前記円筒内部貫通部材の上部の空気を排気し前記大型筒円筒状円筒深層水貯蔵槽内の水面を前記大型筒円筒状円筒深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を上部に移動させ前記水排出用開口より貯蔵された深層水を前記大型筒円筒状円筒深層水貯蔵槽の外に排出して前記ライザー管内の海水又は湖水を上部に移動させ前記深層水取水構造物内の海水又は湖水を循環することにより前記深層水取水開口より深層水を前記大型筒円筒状円筒深層水貯蔵槽内に取水すると共に前記大型筒円筒型気密空間の作動気体空間と前記凝縮器を連結する前記第一連結管を通過した前記作動気体が前記大型筒円筒状円筒深層水貯蔵槽内に内蔵する前記凝縮器により液体の作動流体となり、前記液体の作動流体は前記作動流体連結管を介して前記円筒状表層水貯蔵浮体部材に内蔵された蒸発器を通過して気体の作動流体となり前記第二連結管に備えられた先端ノズルを介して大型内側回転部材の略等間隔の角度の固定された前記回転翼に噴射することを特徴とする。 The first embodiment of the deep water temperature difference power generation device according to the present invention includes a condenser that passes through the working fluid gas deep water, an evaporator that passes through the working fluid gas surface water, and inner and outer diameters containing the working fluid gas. Large cylindrical cylindrical airtight space, a plurality of intermediate balls or intermediate cylindrical rollers, and a large external bearing member having an inner wall engaged with the plurality of intermediate balls or intermediate cylindrical rollers, and the plurality of intermediate balls Alternatively, an outer wall engaged with the intermediate cylindrical roller and a large inner rotating member having rotating blades fixed at substantially equal angles for rotation by the flow of working gas are incorporated in the large cylindrical airtight space. A rotating body structure that is substantially parallel to the sea surface, a magnet and a coil that are interlocked with the rotation of the large inner rotating member and gear interlocking, and a power generation device that generates power as known by electromagnetic induction; Large cylindrical cylindrical cylindrical deep water storage with a built-in condenser having an inner and outer diameter, an upper air layer, an upper air discharge opening for discharging air from the upper air layer, and a water discharge opening on the water surface Deep water intake structure comprising a tank and a riser pipe with a deep water intake opening at the other end at the bottom of the large cylindrical cylindrical deep water storage tank and the inside of the large cylindrical cylindrical cylindrical deep water storage tank A large cylindrical cylindrical cylinder having a cylindrical internal penetrating member having a specific gravity smaller than that of water for closing the water discharge opening when the internal water surface is the same as the water surface outside the deep water storage tank. The air in the upper air layer is exhausted by natural energy means in the deep water storage tank, and the water surface in the large cylindrical cylindrical cylindrical deep water storage tank is moved above the water surface outside the large cylindrical cylindrical cylindrical deep water storage tank. The cylindrical inner penetrating member A large-scale deep water storage floating body member that moves to the upper part of the large cylindrical cylindrical deep water storage tank and discharges the deep water stored in the large cylindrical cylindrical cylindrical deep water storage tank from the water discharge opening, and Cylindrical surface water storage floating body member having a heating means for heating the surface water inserted from the bottom by natural energy power generation means, arranged outside the large cylindrical cylindrical deep water storage tank, and the large cylindrical airtight type For example, four first airtight column members arranged at an angle of, for example, 90 degrees, containing a first connection pipe that connects the working gas space of the space and the condenser, and a tip nozzle that injects the rotor blades. A plurality of second airtight column members having a cylindrical connecting space for connecting the working gas space of the large cylindrical cylindrical airtight space and the evaporator, and arranged at substantially cylindrical angles. Deep water storage floating member and the cylindrical surface For example, an eight-way heat insulation breakage coupling member that joins the layered water storage floating body member at an angle of 45 degrees, and the evaporator and the condenser that are disposed at the center of the heat insulation breakage coupling member are connected. A working fluid connecting pipe is provided, and the air in the upper part of the cylindrical inner penetrating member is exhausted in the large cylindrical cylindrical deep water storage tank so that the water surface in the large cylindrical cylindrical deep water storage tank is discharged to the large cylindrical cylinder. The cylindrical inner cylindrical member is moved out of the large cylindrical cylindrical deep water storage tank by moving the cylindrical inner penetrating member upward by moving it from the water surface outside the cylindrical cylindrical deep water storage tank to the upper part. The deep cylindrical water is stored in the large cylindrical cylindrical cylindrical deep water from the deep water intake opening by circulating the seawater or lake water in the riser pipe and circulating the seawater or lake water in the deep water intake structure. When water is taken into the tank The working gas that has passed through the first connecting pipe connecting the condenser to the working gas space of the large cylindrical cylindrical airtight space is liquidated by the condenser built in the large cylindrical cylindrical deep water storage tank. The liquid working fluid passes through the evaporator built in the cylindrical surface water storage floating body member via the working fluid connecting pipe and becomes a gaseous working fluid, and is provided in the second connecting pipe. The large-sized inner rotary member is sprayed to the rotary blades fixed at substantially equal angles through the tip nozzle.
本発明による深層水温度差発電装置の第二実施例は、作動流体ガ深層水に通過する凝縮器と、作動流体ガ表層水に通過する蒸発器と、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備え前記凝縮器を内蔵する円筒状深層水貯蔵槽と前記円筒状深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管と前記円筒状深層水貯蔵槽の内部を貫通し内部の水面が前記円筒状深層水貯蔵槽外の水面と同じである際前記水排出用開口を閉鎖する比重が水より小さな円筒内部貫通部材とを具備し前記円筒状深層水貯蔵槽内で前記上部空気層の空気を自然エネルギー手段により排気し前記深層水貯蔵槽内の水面を前記深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を前記円筒状深層水貯蔵槽の上部に移動させ前記水排出用開口より前記円筒状深層水貯蔵槽に貯蔵された深層水を外部に排出する円筒状深層水貯蔵浮体部材と 、底部から挿入される表層水を自然エネルギー発電手段により加熱する加熱手段と前記蒸発器を内蔵する円筒状表層水貯蔵浮体部材と、複数個の前記円筒状深層水貯蔵浮体部材及び前記円筒状表層水貯蔵浮体部材を円筒状に交互に配置する大型筒円筒状外形円筒浮体部材群と、作動流体の気体を内蔵する内外径の大きな大型筒円筒型気密空間と、複数個の中間ボール或いは中間円筒コロと前記複数個の中間ボール或いは中間円筒コロと係合する内側壁を具備する大型外形支承部材及び前記複数個の中間ボール或いは中間円筒コロと係合する外側壁と作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する大型内側回転部材とを備え前記大型筒円筒型気密空間内に内蔵された海面と略平行な回転体構造物と、前記大型内側回転部材の回転と歯車連動によりに連動する磁石及びコイルが配置され電磁誘導により公知の如く発電する発電装置と、、前記大型筒円筒型気密空間の下部に配置された前記大型筒円筒状外形円筒浮体部材群と、前記大型筒円筒型気密空間と複数個の前記円筒状深層水貯蔵浮体部材に内蔵された前記凝縮器を連結する第一連結管を内蔵する複数個の第一の気密性柱部材と、前記回転翼に噴射する先端ノズルを備え前記大型筒円筒型気密空間と前記蒸発器を連結する第二連結管を内蔵する複数個の第二の気密性柱部材と、円筒状に交互に配置された複数個の円筒状深層水貯蔵浮体部材と円筒状表層水貯蔵浮体部材に内蔵された複数個の前記凝縮器と隣の複数個の前記蒸発器を連結する作動流体連結管を内蔵する複数個の断熱性遮断結合部材を具備し、前記円筒状深層水貯蔵槽内で前記円筒内部貫通部材の上部の空気を排気し前記円筒状深層水貯蔵槽内の水面を前記円筒状深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を上部に移動させ前記水排出用開口より貯蔵された深層水を前記円筒状深層水貯蔵槽の外に排出して前記ライザー管内の海水又は湖水を上部に移動させ前記円筒状深層水貯蔵浮体部材内の海水又は湖水を循環することにより前記深層水取水開口より深層水を前記円筒状深層水貯蔵槽内に取水すると共に前記大型筒円筒型気密空間と前記凝縮器を連結する複数の前記第一連結管を通過した前記作動気体が前記円筒状深層水貯蔵槽内に内蔵する複数の前記凝縮器により液体の作動流体となり、前記液体の作動流体は前記作動流体連結管を介して前記円筒状表層水貯蔵浮体部材に内蔵された複数の前記蒸発器を通過して気体の作動流体となり複数個の前記第二連結管に備えられた先端ノズルを介して大型内側回転部材の略等間隔の角度の固定された前記回転翼に噴射することを特徴とする。
前記円筒状に交互に配置された複数個の円筒状深層水貯蔵浮体部材と円筒状表層水貯蔵浮体部材は複数個の同心円上の内側円筒状にも交互に配置し外側同心円と内側同心円の円筒状深層水貯蔵浮体部材と円筒状表層水貯蔵浮体部材が前記断熱性遮断結合部材を介して網状に連結された実施例も本発明の要旨の範囲である。
A second embodiment of the deep water temperature difference power generation device according to the present invention comprises a condenser that passes through the working fluid gas deep water, an evaporator that passes through the working fluid gas surface water, and a large inner and outer diameter at the top of one end. A cylindrical deep water storage tank having an upper air layer, an upper air discharge opening for discharging air from the upper air layer, and a water discharge opening on the surface of the water; When the riser pipe having a deep water intake opening at the other end at the lower part and the inside of the cylindrical deep water storage tank pass through and the water surface inside is the same as the water surface outside the cylindrical deep water storage tank, A cylindrical inner penetrating member having a specific gravity smaller than that of water, which closes the opening, and exhausts the air in the upper air layer by natural energy means in the cylindrical deep water storage tank so that the water level in the deep water storage tank Move it above the surface outside the water storage tank A cylindrical deep water storage floating body member that moves the cylindrical inner penetrating member to an upper part of the cylindrical deep water storage tank and discharges the deep water stored in the cylindrical deep water storage tank to the outside through the water discharge opening. A heating means for heating the surface water inserted from the bottom by means of natural energy power generation means, a cylindrical surface water storage floating body member incorporating the evaporator, a plurality of the cylindrical deep water storage floating body members and the cylindrical shape Large cylinder cylindrical outer cylinder floating body group in which surface layer water storage floating members are alternately arranged in a cylindrical shape, a large cylindrical cylindrical airtight space having a large inner and outer diameter containing a working fluid gas, and a plurality of intermediate balls or intermediate A large-sized outer support member having a cylindrical roller and an inner wall that engages with the plurality of intermediate balls or the intermediate cylindrical roller, and an outer wall that engages with the plurality of intermediate balls or the intermediate cylindrical roller, and a working air A rotating body structure that is substantially parallel to the sea surface and is incorporated in the large cylindrical airtight space, and a large inner rotating member that includes rotating blades that are fixed at substantially equiangular angles to rotate by the flow of A power generation device in which magnets and coils that are interlocked with the rotation of the large inner rotating member and gear interlocking are arranged to generate electric power in a known manner by electromagnetic induction, and the large cylindrical cylinder disposed below the large cylindrical cylindrical airtight space A plurality of first cylindrical tubes having a first connecting pipe for connecting the condensers built in the large cylindrical cylindrical airtight space and the plurality of cylindrical deep water storage floating members; A plurality of second airtight column members each including a gastight column member, a tip nozzle for spraying the rotor blades, and a second connecting pipe for connecting the large cylindrical airtight space and the evaporator; Multiple arranged alternately A plurality of heat insulating properties including a working fluid connecting pipe for connecting a plurality of the condensers built in the cylindrical deep-layer water storage floating body member and a cylindrical surface-layer water storage floating body member to the adjacent plurality of evaporators A barrier coupling member is provided, the air inside the cylindrical inner penetrating member is exhausted in the cylindrical deep water storage tank, and the water surface in the cylindrical deep water storage tank is removed from the water surface outside the cylindrical deep water storage tank. By moving the cylindrical inner penetrating member to the upper part by moving to the upper part, the deep water stored from the water discharge opening is discharged to the outside of the cylindrical deep water storage tank, and the seawater or the lake water in the riser pipe is discharged to the upper part. And by circulating the seawater or lake water in the cylindrical deep water storage floating body member to take deep water from the deep water intake opening into the cylindrical deep water storage tank and the large cylindrical airtight space Connect the condenser The working gas that has passed through the plurality of first connecting pipes becomes a liquid working fluid by the plurality of condensers built in the cylindrical deep water storage tank, and the liquid working fluid passes through the working fluid connecting pipe. The large inner rotating member through the plurality of evaporators built in the cylindrical surface water storage floating member through the tip nozzles provided in the second connecting pipes as gas working fluid. Injecting onto the rotor blades having fixed angles at substantially equal intervals.
The plurality of cylindrical deep water storage float members and the cylindrical surface water storage float members alternately arranged in a cylindrical shape are also alternately arranged in a plurality of concentric inner cylinders, and outer concentric and inner concentric cylinders. An embodiment in which a cylindrical deep-layer water storage floating body member and a cylindrical surface-layer water storage floating body member are connected in a net-like manner through the heat-insulating blocking coupling member is also within the scope of the gist of the present invention.
本発明による深層水温度差発電装置の第二実施例は、外側同心円の円筒状に複数個の前記円筒状表層水貯蔵浮体部材を配置すると共に内側同心円の円筒状に複数個の前記円筒状深層水貯蔵浮体部材を断熱性遮断結合部材により連結して配置し必要ならば更に内側同心円の円筒状に複数個の前記円筒状表層水貯蔵浮体部材を配置して複数個の前記円筒状表層水貯蔵浮体部材と複数個の円筒状深層水貯蔵浮体部材のそれぞれを前記断熱性遮断結合部材連結する構成も本発明の要旨の範囲である。 The second embodiment of the deep water temperature difference power generation device according to the present invention has a plurality of cylindrical surface layer water storage float members arranged in an outer concentric cylindrical shape and a plurality of the cylindrical deep layers in an inner concentric cylindrical shape. A plurality of cylindrical surface layer water storage float members are arranged in an inner concentric cylinder, if necessary. A structure in which each of the floating member and the plurality of cylindrical deep-layer water storage floating members is connected to the heat-insulating blocking coupling member is also within the scope of the present invention.
前記大型筒円筒型気密空間の気密部材が公知の前記歯車連動以外例えば等分割に分割され，等分割気密部材が前記歯車連動を内蔵する分割気密部材とともに結合部材を介して組み立てられ、前記大型外形支承部材及び前記大型内側回転部材が例えば等分割に分割され、複数個の前記中間ボール或いは中間円筒コロと係合する内側壁を具備する前記大型外形支承部材が前記大型筒円筒型気密空間内に等分割に分割された大型外形支承部材均等部品を結合部材を介して組み立てられ、前記中間ボール或いは中間円筒コロと係合する外側壁を具備し作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する前記大型内側回転部材が前記大型筒円筒型気密空間内に例えば等分割に分割された前記大型内側回転部材均等部品を内側回転可能になるべくが結合部材を介して組み立てられる。 In addition to the known gear interlock, the airtight member of the large cylindrical airtight space is divided into, for example, equally divided parts, and the equally divided hermetic member is assembled through a coupling member together with the divided hermetic member incorporating the gear interlock, The bearing member and the large inner rotating member are divided into, for example, equal divisions, and the large outer support member having an inner wall engaged with the plurality of intermediate balls or intermediate cylindrical rollers is placed in the large cylindrical cylindrical airtight space. Equivalently divided large-sized outer support members divided into equal parts are assembled through a coupling member, and have outer walls that engage with the intermediate balls or intermediate cylindrical rollers. The large inner rotating member having the fixed rotating blades of the large inner rotating member is divided into, for example, equally divided parts in the large cylindrical airtight space. Rotatably possible is assembled via a coupling member.
本発明によると、大型筒円筒状円筒深層水貯蔵槽或いは大型筒円筒状外形円筒浮体部材群の一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを具備する深層水貯蔵槽を備えた深層水貯蔵浮体部材を大型筒円筒状に配置することにより深層水を少ないエネルギーでくみ上げると共に大型筒円筒型気密空間に備えられた作動気体の流れにより回転する大型内側回転部材により大電力発電が可能となる。 According to the present invention, a large cylindrical cylindrical deep water storage tank or a large cylindrical cylindrical outer cylindrical floating member group has a large inner and outer diameter at the upper part of one end thereof, and the upper air layer and the upper air layer for discharging air from the upper air layer are discharged. A deep water storage floating body member having a deep water storage tank having an air discharge opening and a water discharge opening on the surface of the water is arranged in a large cylindrical shape so that deep water can be pumped with less energy and a large cylindrical airtight Large electric power can be generated by the large-sized inner rotating member that is rotated by the flow of the working gas provided in the space.
本発明による深層水温度差発電環状漁業装置の第一実施例は、作動流体ガ深層水に通過する凝縮器と、作動流体ガ表層水に通過するする蒸発器と、作動流体の気体を内蔵すると共に円筒内部は太陽光を通過させる海面と略平行な内外径の大きな大型筒円筒型気密空間と、複数個の中間ボール或いは中間円筒コロと前記複数個の中間ボール或いは中間円筒コロと係合する内側壁を具備する大型外形支承部材及び前記複数個の中間ボール或いは中間円筒コロと係合する外側壁と作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する大型内側回転部材とを備え前記大型筒円筒型気密空間内に内蔵された海面と略平行な回転体構造物と、前記大型内側回転部材の回転に連動する磁石及びコイルが配置され電磁誘導により公知の如く発電する発電装置と、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備え前記凝縮器を内蔵する大型筒円筒状円筒深層水貯蔵槽と前記大型筒円筒状円筒深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管を具備する深層水取水構造物と前記大型筒円筒状円筒深層水貯蔵槽の内部を貫通し内部の水面が前記大型筒円筒状円筒深層水貯蔵槽外の水面と同じである際前記水排出用開口を閉鎖する比重が水より小さな円筒内部貫通部材とを有し前記大型筒円筒状円筒深層水貯蔵槽内で前記上部空気層の空気を自然エネルギー手段により排気し前記大型筒円筒状円筒深層水貯蔵槽内の水面を前記大型筒円筒状円筒深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を前記大型筒円筒状円筒深層水貯蔵槽の上部に移動させ前記水排出用開口より前記大型筒円筒状円筒深層水貯蔵槽に貯蔵された深層水を外部に排出する大型深層水貯蔵浮体部材と、前記大型筒円筒状円筒深層水貯蔵槽の外側に配置され底部から挿入される表層水を自然エネルギー発電手段により加熱する加熱手段を内蔵する円筒状表層水貯蔵浮体部材と、前記大型筒円筒型気密空間の作動気体空間と前記凝縮器を連結する第一連結管を内蔵する例えば90度の角度で配置された4個の第一の気密性柱部材と、前記回転翼に噴射する先端ノズルを備え前記大型筒円筒型気密空間の作動気体空間と前記蒸発器を連結する第二連結管を内蔵し円筒状略等間隔の角度で配置される複数個の第二の気密性柱部材と、前記大型深層水貯蔵浮体部材と前記円筒状表層水貯蔵浮体部材を結合する例えば45度の角度で連結する8等分方向の断熱性遮断結合部材と、前記断熱性遮断結合部材の中央部に配置され前記蒸発器と前記凝縮器を連結する作動流体連結管と、前記円筒状表層水貯蔵浮体部材の外側に位置し海面上高さが５メートル以上の空気層と津波に耐えうる重量を有し引張力に耐えうる厚みと高さを備えた一個或いは二個の穴を有する浮体部材の多数個を結合部材によって結合した環状外壁浮体部材と、前記多数個の浮体部材の何れかに備えられ底部に淡水を有する浮体部材と、前記多数個の浮体部材の何れかに配置された風力発電等の自然エネルギー発電装置と、前記環状外壁浮体部材により保持された漁撈装置或いは養殖装置と、前記環状外壁浮体部材を結合部材によって結合した鎖状環状外壁浮体部材をを具備し、前記大型筒円筒状円筒深層水貯蔵槽内で前記円筒内部貫通部材の上部の空気を排気し前記大型筒円筒状円筒深層水貯蔵槽内の水面を前記大型筒円筒状円筒深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を上部に移動させ前記水排出用開口より貯蔵された深層水を前記大型筒円筒状円筒深層水貯蔵槽の外に排出して前記ライザー管内の海水又は湖水を上部に移動させ前記深層水取水構造物内の海水又は湖水を循環することにより前記深層水取水開口より深層水を前記大型筒円筒状円筒深層水貯蔵槽内に取水すると共に前記大型筒円筒型気密空間の作動気体空間と前記凝縮器を連結する前記第一連結管を通過した前記作動気体が前記大型筒円筒状円筒深層水貯蔵槽内に内蔵する前記凝縮器により液体の作動流体となり、前記液体の作動流体は前記作動流体連結管を介して前記円筒状表層水貯蔵浮体部材に内蔵された蒸発器を通過して気体の作動流体となり前記第二連結管に備えられた先端ノズルを介して大型内側回転部材の略等間隔の角度の固定された前記回転翼に噴射することを特徴とする。 The first embodiment of the deep water temperature difference power generation annular fishery apparatus according to the present invention incorporates a condenser that passes through the working fluid gas deep water, an evaporator that passes through the working fluid gas surface water, and a working fluid gas. In addition, the inside of the cylinder engages with a large cylindrical airtight space having a large inner and outer diameter substantially parallel to the sea surface through which sunlight passes, and a plurality of intermediate balls or intermediate cylindrical rollers and the plurality of intermediate balls or intermediate cylindrical rollers. A large outer support member having an inner wall and an outer wall engaged with the plurality of intermediate balls or intermediate cylindrical rollers, and a large blade having rotating blades fixed at substantially equal intervals for rotation by the flow of working gas. A rotating body structure that is provided with an inner rotating member and is substantially parallel to the sea surface incorporated in the large cylindrical airtight space, and a magnet and a coil that are interlocked with the rotation of the large inner rotating member are arranged, and are publicized by electromagnetic induction The condenser having a large inner and outer diameter at one upper end, an upper air layer, an upper air discharge opening for discharging the air in the upper air layer, and a water discharge opening on the water surface. A large-pipe cylindrical cylindrical deep water storage tank with a built-in pipe, a deep-pipe water intake structure including a riser pipe having a deep-pipe water intake opening at the lower end of the large-pipe cylindrical cylindrical deep water storage tank, and the large pipe Cylindrical cylindrical deep water storage tank penetrating through the inside of the cylinder, and when the internal water surface is the same as the water surface outside the large cylindrical cylindrical deep water storage tank, the specific gravity closing the water discharge opening is smaller than that of water. A large cylindrical cylindrical cylindrical deep water storage tank, and the air in the upper air layer is exhausted by natural energy means in the large cylindrical cylindrical deep water storage tank so that the water surface in the large cylindrical cylindrical deep water storage tank is Above the surface outside the deep water storage tank The cylindrical inner penetrating member is moved to the upper part of the large cylindrical cylindrical cylindrical deep water storage tank by moving the deep water stored in the large cylindrical cylindrical cylindrical deep water storage tank to the outside from the water discharge opening. Cylindrical surface water storage including a large-scale deep water storage floating member to be discharged and a heating means for heating the surface water inserted from the bottom, which is disposed outside the large cylindrical cylindrical cylindrical deep water storage tank, by natural energy power generation means Floating body members, four first airtight column members arranged at an angle of 90 degrees, for example, which incorporate a first connecting pipe that connects the condenser and the working gas space of the large cylindrical cylindrical airtight space, A plurality of second nozzles having a tip nozzle for injecting into the rotor blade and having a second connecting pipe for connecting the working gas space of the large cylindrical airtight space and the evaporator are arranged at substantially equal angular intervals. Two airtight column members; The large-scale deep water storage floating body member and the cylindrical surface layer water storage floating body member are connected to each other at an angle of 45 degrees, for example. A working fluid connecting pipe connecting the evaporator and the condenser, an air layer having a sea surface height of 5 meters or more, and a weight capable of withstanding a tsunami, located outside the cylindrical surface water storage floating body member. An annular outer wall floating member in which a large number of floating members having one or two holes having a thickness and a height capable of withstanding a tensile force are coupled by a coupling member, and a bottom portion provided in any of the plurality of floating members. A floating member having fresh water, a natural energy power generation device such as wind power generator disposed on any of the multiple floating members, a fishing device or aquaculture device held by the annular outer wall floating member, and the annular outer wall Floating body member A large circular cylindrical cylindrical deep water storage tank comprising a chain-like annular outer wall floating body member coupled by a coupling member, and exhausting air above the cylindrical inner penetrating member in the large cylindrical cylindrical cylindrical deep water storage tank By moving the water surface inside the large cylindrical cylindrical cylindrical deep water storage tank to the upper part, the cylindrical inner penetrating member is moved to the upper part and the deep water stored from the water discharge opening is stored in the large cylindrical cylinder. The deep sea water is discharged from the deep cylindrical water storage tank, and the sea water or the lake water in the riser pipe is moved to the upper part to circulate the sea water or the lake water in the deep water intake structure. The large cylinder cylindrical cylindrical water is taken into the deep water storage tank and the working gas passing through the first connecting pipe connecting the working gas space of the large cylinder cylindrical airtight space and the condenser is the large cylinder cylindrical cylinder. The condenser built in the layer water storage tank becomes a liquid working fluid, and the liquid working fluid passes through the evaporator built in the cylindrical surface layer water storage floating member via the working fluid connecting pipe. It becomes a gaseous working fluid and is injected to the rotating blades fixed at substantially equal intervals of the large inner rotating member through a tip nozzle provided in the second connecting pipe.
本発明による深層水温度差発電環状漁業装置の第二実施例は、作動流体ガ深層水に通過する凝縮器と、作動流体ガ表層水に通過する蒸発器と、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備え前記凝縮器を内蔵する円筒状深層水貯蔵槽と前記円筒状深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管と前記円筒状深層水貯蔵槽の内部を貫通し内部の水面が前記円筒状深層水貯蔵槽外の水面と同じである際前記水排出用開口を閉鎖する比重が水より小さな円筒内部貫通部材とを具備し前記円筒状深層水貯蔵槽内で前記上部空気層の空気を自然エネルギー手段により排気し前記深層水貯蔵槽内の水面を前記深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を前記円筒状深層水貯蔵槽の上部に移動させ前記水排出用開口より前記円筒状深層水貯蔵槽に貯蔵された深層水を外部に排出する円筒状深層水貯蔵浮体部材と 、底部から挿入される表層水を自然エネルギー発電手段により加熱する加熱手段と前記蒸発器を内蔵する円筒状表層水貯蔵浮体部材と、複数個の前記円筒状深層水貯蔵浮体部材及び前記円筒状表層水貯蔵浮体部材を円筒状に交互に配置する大型筒円筒状外形円筒浮体部材群と、作動流体の気体を内蔵すると共に円筒内部は太陽光を通過させる海面と略平行な内外径の大きな大型筒円筒型気密空間と、複数個の中間ボール或いは中間円筒コロと前記複数個の中間ボール或いは中間円筒コロと係合する内側壁を具備する大型外形支承部材及び前記複数個の中間ボール或いは中間円筒コロと係合する外側壁と作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する大型内側回転部材とを備え前記大型筒円筒型気密空間内に内蔵された海面と略平行な回転体構造物と、前記大型内側回転部材の回転と歯車連動によりに連動する磁石及びコイルが配置され電磁誘導により公知の如く発電する発電装置と、、前記大型筒円筒型気密空間の下部に配置された前記大型筒円筒状外形円筒浮体部材群と、前記大型筒円筒型気密空間と複数個の前記円筒状深層水貯蔵浮体部材に内蔵された前記凝縮器を連結する第一連結管を内蔵する複数個の第一の気密性柱部材と、前記回転翼に噴射する先端ノズルを備え前記大型筒円筒型気密空間と前記蒸発器を連結する第二連結管を内蔵する複数個の第二の気密性柱部材と、円筒状に交互に配置された複数個の円筒状深層水貯蔵浮体部材と円筒状表層水貯蔵浮体部材に内蔵された複数個の前記凝縮器と隣の複数個の前記蒸発器を連結する作動流体連結管を内蔵する複数個の断熱性遮断結合部材と、前記円筒状深層水貯蔵浮体部材と前記円筒状表層水貯蔵浮体部材の外側に位置し５メートル以上の空気層と津波に耐えうる重量を有し引張力に耐えうる厚みと高さを備えた一個或いは二個の穴を有する浮体部材の多数個を結合部材によって結合した環状外壁浮体部材と、前記多数個の浮体部材の何れかに備えられ底部に淡水を有する浮体部材と、前記多数個の浮体部材の何れかに配置された風力発電等の自然エネルギー発電装置と、前記環状外壁浮体部材により保持された漁撈装置或いは養殖装置を具備し、前記円筒状深層水貯蔵槽内で前記円筒内部貫通部材の上部の空気を排気し前記円筒状深層水貯蔵槽内の水面を前記円筒状深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を上部に移動させ前記水排出用開口より貯蔵された深層水を前記円筒状深層水貯蔵槽の外に排出して前記ライザー管内の海水又は湖水を上部に移動させ前記円筒状深層水貯蔵浮体部材内の海水又は湖水を循環することにより前記深層水取水開口より深層水を前記円筒状深層水貯蔵槽内に取水すると共に前記大型筒円筒型気密空間と前記凝縮器を連結する複数の前記第一連結管を通過した前記作動気体が前記円筒状深層水貯蔵槽内に内蔵する前記凝縮器により液体の作動流体となり、前記液体の作動流体は前記作動流体連結管を介して前記円筒状表層水貯蔵浮体部材に内蔵された複数の前記蒸発器を通過して気体の作動流体となり複数個の前記第二連結管に備えられた先端ノズルを介して大型内側回転部材の略等間隔の角度の固定された前記回転翼に噴射すると共に前記円筒状深層水貯蔵槽から排出された深層水を前記大型筒円筒型気密空間の大型円筒内の海に排出することを特徴とする。 The second embodiment of the deep water temperature difference power generation annular fishery apparatus according to the present invention includes a condenser that passes through the working fluid gas deep water, an evaporator that passes through the working fluid gas surface water, and a large inner and outer diameter at the top of one end. A cylindrical deep water storage tank having the upper air layer, an upper air discharge opening for discharging the air in the upper air layer, and a water discharge opening on the water surface, and containing the condenser; and the cylindrical deep water storage When the riser pipe having a deep water intake opening at the other end at the lower part of the tank and the inside of the cylindrical deep water storage tank pass through the inside water surface is the same as the water surface outside the cylindrical deep water storage tank, the water A cylindrical internal penetrating member having a specific gravity smaller than that of water, which closes the discharge opening, and exhausts the air in the upper air layer by natural energy means in the cylindrical deep water storage tank so that the water surface in the deep water storage tank is Moved above the water surface outside the deep water storage tank By moving the cylindrical inner penetrating member to the upper part of the cylindrical deep water storage tank, the deep water stored in the cylindrical deep water storage tank is discharged to the outside through the water discharge opening. A floating body member, a heating means for heating surface water inserted from the bottom by natural energy power generation means, a cylindrical surface water storage floating body member incorporating the evaporator, a plurality of the cylindrical deep water storage floating body members, and the Large-scale cylindrical outer cylinder floating body group that arranges cylindrical surface water storage floating body members alternately in a cylindrical shape, and a gas of working fluid is built in and the inside of the cylinder has an inner and outer diameter substantially parallel to the sea surface through which sunlight passes. Large outer cylindrical bearing member comprising a large large cylindrical airtight space, a plurality of intermediate balls or intermediate cylindrical rollers, and an inner wall engaged with the plurality of intermediate balls or intermediate cylindrical rollers, and the plurality An outer wall engaging with the intermediate ball or the intermediate cylindrical roller, and a large inner rotating member having rotating blades fixed at substantially equal angles for rotation by the flow of working gas. A rotating body structure substantially parallel to the sea surface incorporated therein, a magnet and a coil that are interlocked with the rotation of the large inner rotating member and the gear interlocking, and a power generation device that generates power as known by electromagnetic induction, and The large cylindrical cylindrical outer cylindrical floating body member group disposed in the lower part of the large cylindrical cylindrical airtight space, and the condenser built in the large cylindrical cylindrical airtight space and the plurality of cylindrical deep water storage floating body members A plurality of first airtight column members having a first connection pipe connecting them, and a second connection pipe for connecting the large cylindrical cylindrical airtight space and the evaporator, each having a tip nozzle that injects the rotor blades. Built-in multiple A plurality of second hermetic column members, a plurality of cylindrical deep water storage floating members arranged alternately in a cylindrical shape, and a plurality of the condensers built in the cylindrical surface water storage floating member. A plurality of adiabatic shutoff coupling members having a working fluid connection pipe connecting a plurality of the evaporators, 5 m located outside the cylindrical deep water storage floating member and the cylindrical surface water storage floating member; An annular outer wall floating member in which a large number of floating members having one or two holes each having a thickness and height capable of withstanding a tensile force and having a weight capable of withstanding the above air layer and tsunami are coupled by a coupling member; A floating member that is provided in any of the plurality of floating members and has fresh water at the bottom thereof, a natural energy power generation device such as a wind power generator disposed in any of the multiple floating members, and the annular outer wall floating member Retained fishing equipment or farming A breeding device, exhausting the air above the cylindrical inner penetrating member in the cylindrical deep water storage tank, the water surface in the cylindrical deep water storage tank above the water surface outside the cylindrical deep water storage tank The cylindrical inner penetrating member is moved upward to move the deep water stored in the water discharge opening out of the cylindrical deep water storage tank, and the seawater or lake water in the riser pipe is moved upward. By moving and circulating the seawater or lake water in the cylindrical deep water storage floating member, the deep water is taken into the cylindrical deep water storage tank from the deep water intake opening and the large cylindrical airtight space and the large cylinder The working gas that has passed through the plurality of first connecting pipes connecting the condenser becomes a liquid working fluid by the condenser built in the cylindrical deep water storage tank, and the liquid working fluid is connected to the working fluid. Tube And passing through the plurality of evaporators built in the cylindrical surface water storage floating body member to become a gaseous working fluid, and through the tip nozzles provided in the plurality of second connection pipes, Injecting into the rotary blades fixed at substantially equal intervals, and discharging the deep water discharged from the cylindrical deep water storage tank to the sea in the large cylinder of the large cylindrical airtight space To do.
多数個の前記浮体部材を結合部材によって結合した環状外壁浮体部材の内部に前記円筒状深層水貯蔵浮体部材を配置して前記大型筒円筒型気密空間の円筒内部を太陽光が通過するので栄養塩を多く含んだ深層水を前記大型筒円筒型気密空間の円筒内部に排出するので好漁場となる。
多数個の前記環状外壁浮体部材は海面上垂直の前記穴を金属線のくさりにより結合されているので前記浮体部材の何れかに風力発電装置を設置しても転倒しない。
前記環状浮体部材により保持された漁撈装置或いは養殖装置は本出願人が既に提案している漁撈生簀及び漁撈生簀を兼ねる養殖生簀（特開２０１１−２１７６１５）も一実施例であるがそれに限定されないで公知の漁撈装置或いは養殖装置も実施可能である。
Nutrient salt because sunlight passes through the inside of the large cylindrical cylindrical airtight space by disposing the cylindrical deep water storage floating member inside the annular outer wall floating member in which a large number of floating members are joined by a joining member. Since deep water containing a large amount of water is discharged into the cylinder of the large cylindrical airtight space, it becomes a good fishing ground.
Since a large number of the annular outer wall floating members are connected to the holes perpendicular to the sea surface by a metal wire, even if a wind power generator is installed in any of the floating members, they do not fall down.
The fishing device or aquaculture device held by the annular floating member is one example of a fishing ginger that has already been proposed by the present applicant and a cultured ginger (Japanese Patent Laid-Open No. 2011-217615), but is not limited thereto. Known fishing equipment or aquaculture equipment can also be implemented.
本発明による津波対策鎖状深層水温度差発電津波対策鎖状環状漁業装置の第一の実施形態は、作動流体ガ深層水に通過する凝縮器と、作動流体ガ表層水に通過するする蒸発器と、作動流体の気体を内蔵すると共に円筒内部は太陽光を通過させる内外径の大きな大型筒円筒型気密空間と、複数個の中間ボール或いは中間円筒コロと前記複数個の中間ボール或いは中間円筒コロと係合する内側壁を具備する大型外形支承部材及び前記複数個の中間ボール或いは中間円筒コロと係合する外側壁と作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する大型内側回転部材とを備え前記大型筒円筒型気密空間内に内蔵された海面と略平行な回転体構造物と、前記大型内側回転部材の回転に連動する磁石及びコイルが配置され電磁誘導により公知の如く発電する発電装置と、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備え前記凝縮器を内蔵する大型筒円筒状円筒深層水貯蔵槽と前記大型筒円筒状円筒深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管を具備する深層水取水構造物と前記大型筒円筒状円筒深層水貯蔵槽の内部を貫通し内部の水面が前記大型筒円筒状円筒深層水貯蔵槽外の水面と同じである際前記水排出用開口を閉鎖する比重が水より小さな円筒内部貫通部材とを有し前記大型筒円筒状円筒深層水貯蔵槽内で前記上部空気層の空気を自然エネルギー手段により排気し前記大型筒円筒状円筒深層水貯蔵槽内の水面を前記大型筒円筒状円筒深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を前記大型筒円筒状円筒深層水貯蔵槽の上部に移動させ前記水排出用開口より前記大型筒円筒状円筒深層水貯蔵槽に貯蔵された深層水を外部に排出する大型深層水貯蔵浮体部材と、前記大型筒円筒状円筒深層水貯蔵槽の外側に配置され底部から挿入される表層水を自然エネルギー発電手段により加熱する加熱手段を内蔵する円筒状表層水貯蔵浮体部材と、前記大型筒円筒型気密空間の作動気体空間と前記凝縮器を連結する第一連結管を内蔵する例えば90度の角度で配置された4個の第一の気密性柱部材と、前記回転翼に噴射する先端ノズルを備え前記大型筒円筒型気密空間の作動気体空間と前記蒸発器を連結する第二連結管を内蔵し円筒状略等間隔の角度で配置される複数個の第二の気密性柱部材と、前記大型深層水貯蔵浮体部材と前記円筒状表層水貯蔵浮体部材を結合する例えば45度の角度で連結する8等分方向の断熱性遮断結合部材と、前記断熱性遮断結合部材の中央部に配置され前記蒸発器と前記凝縮器を連結する作動流体連結管と、前記円筒状表層水貯蔵浮体部材の外側に位置し海面上高さが１０メートル以上の空気層と津波に耐えうる重量を有し引張力に耐えうる厚みと高さを備えた一個或いは二個の穴を有する浮体部材の多数個を結合部材によって結合した環状外壁浮体部材と、前記多数個の浮体部材の何れかに備えられ底部に淡水を有する浮体部材と、前記多数個の浮体部材の何れかに配置された風力発電等の自然エネルギー発電装置と、前記環状外壁浮体部材により保持された漁撈装置或いは養殖装置と、前記環状外壁浮体部材を結合部材によって結合した鎖状環状外壁浮体部材をを具備し、前記大型筒円筒状円筒深層水貯蔵槽内で前記円筒内部貫通部材の上部の空気を排気し前記大型筒円筒状円筒深層水貯蔵槽内の水面を前記大型筒円筒状円筒深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を上部に移動させ前記水排出用開口より貯蔵された深層水を前記大型筒円筒状円筒深層水貯蔵槽の外に排出して前記ライザー管内の海水又は湖水を上部に移動させ前記深層水取水構造物内の海水又は湖水を循環することにより前記深層水取水開口より深層水を前記大型筒円筒状円筒深層水貯蔵槽内に取水すると共に前記大型筒円筒型気密空間の作動気体空間と前記凝縮器を連結する前記第一連結管を通過した前記作動気体が前記大型筒円筒状円筒深層水貯蔵槽内に内蔵する前記凝縮器により液体の作動流体となり、前記液体の作動流体は前記作動流体連結管を介して前記円筒状表層水貯蔵浮体部材に内蔵された蒸発器を通過して気体の作動流体となり前記第二連結管に備えられた先端ノズルを介して大型内側回転部材の略等間隔の角度の固定された前記回転翼に噴射することを特徴とする。 The first embodiment of the chain-like deep water temperature difference power generation tsunami countermeasure chain ring fishery device according to the present invention includes a condenser that passes through the working fluid gas deep water and an evaporator that passes through the working fluid gas surface water And a large cylindrical airtight space with a large inner and outer diameter through which sunlight is allowed to pass, and a plurality of intermediate balls or intermediate cylindrical rollers and the plurality of intermediate balls or intermediate cylindrical rollers. Large-sized outer support member having an inner wall engaged with the outer wall and an outer wall engaged with the plurality of intermediate balls or intermediate cylindrical rollers and a rotating blade fixed at substantially equal intervals for rotation by the flow of working gas A rotating body structure substantially parallel to the sea surface incorporated in the large cylindrical cylindrical airtight space, and a magnet and a coil interlocking with the rotation of the large inner rotating member. A power generation device that generates electricity by induction, and has a large inner and outer diameter at the top of one end, an upper air layer, an upper air discharge opening for discharging the air in the upper air layer, and a water discharge opening on the water surface. A large-scale cylindrical cylindrical deep water storage tank containing the condenser, and a deep-layer water intake structure including a riser pipe having a deep-water intake opening at the other end at the lower part of the large-sized cylindrical cylindrical cylindrical deep water storage tank; The specific gravity for closing the water discharge opening is smaller than that of water when the inside of the large cylindrical cylindrical deep water storage tank passes through and the water surface inside is the same as the water surface outside the large cylindrical cylindrical deep water storage tank. A cylindrical inner penetrating member, and the air in the upper air layer is exhausted by natural energy means in the large cylindrical cylindrical deep water storage tank, and the water surface in the large cylindrical cylindrical deep water storage tank is Cylindrical cylindrical deep water storage tank outside A deep layer stored in the large cylindrical cylindrical cylindrical deep water storage tank through the water discharge opening by moving the cylindrical inner penetrating member to an upper part of the large cylindrical cylindrical deep water storage tank A large-scale deep water storage floating body member for discharging water to the outside, and a cylinder containing heating means for heating the surface water inserted from the bottom, which is disposed outside the large cylindrical cylindrical cylindrical deep water storage tank, by natural energy power generation means Four first airtightness arranged at an angle of 90 degrees, for example, including a surface water storage floating body member, a working gas space of the large cylindrical cylindrical airtight space, and a first connection pipe connecting the condenser A column member and a tip nozzle that injects into the rotor blades are provided, and a second connecting pipe that connects the working gas space of the large cylindrical airtight space and the evaporator is built in and arranged at substantially cylindrically spaced angles. Multiple second qi A dense column member, the large-scale deep water storage floating body member, and the cylindrical surface water storage floating body member, for example, connecting at an angle of 45 degrees, an adiabatic cut-off coupling member in an eight-divided direction, and the adiabatic cut-off coupling A working fluid connecting pipe arranged in the central part of the member for connecting the evaporator and the condenser, an air layer having a sea level height of 10 meters or more and a tsunami located outside the cylindrical surface water storage floating member An annular outer wall floating member in which a large number of floating members having one or two holes having a weight and a thickness and height that can withstand a tensile force are coupled by a coupling member; and the plurality of floating members Floating member that has fresh water at the bottom provided in any one of them, a natural energy power generation device such as wind power generation disposed in any one of the many floating members, and a fishing device or aquaculture held by the annular outer wall floating member A device and said A cylindrical outer wall floating body member joined by a coupling member and exhausting the air above the cylindrical inner penetrating member in the large cylindrical cylindrical deep water storage tank. Deep water stored in the water discharge opening by moving the cylindrical inner penetrating member upward by moving the water surface in the cylindrical deep water storage tank above the water surface outside the large cylindrical cylindrical deep water storage tank The deep water intake opening by discharging the large cylindrical cylindrical cylindrical deep water storage tank to move the sea water or lake water in the riser pipe upward and circulating the sea water or lake water in the deep water intake structure More deep water is taken into the large cylindrical cylindrical cylindrical deep water storage tank and the working gas passing through the first connecting pipe connecting the working gas space of the large cylindrical cylindrical airtight space and the condenser is the The cylindrical cylinder deep water storage tank incorporates the condenser into a liquid working fluid, and the liquid working fluid is evaporated into the cylindrical surface water storage floating member via the working fluid connecting pipe. It passes through the vessel, becomes a gaseous working fluid, and is injected to the rotary blades fixed at substantially equal intervals of the large inner rotary member through a tip nozzle provided in the second connecting pipe.
本発明による津波対策鎖状深層水温度差発電環状漁業装置の第二実施例は、作動流体ガ深層水に通過する凝縮器と、作動流体ガ表層水に通過する蒸発器と、一端の上部に大きな内外径を具備し上部空気層と前記上部空気層の空気を排出する上部の空気排出開口と水面上の水排出用開口とを備え前記凝縮器を内蔵する円筒状深層水貯蔵槽と前記円筒状深層水貯蔵槽の下部に他端の深層水取水開口を備えたライザー管と前記円筒状深層水貯蔵槽の内部を貫通し内部の水面が前記円筒状深層水貯蔵槽外の水面と同じである際前記水排出用開口を閉鎖する比重が水より小さな円筒内部貫通部材とを具備し前記円筒状深層水貯蔵槽内で前記上部空気層の空気を自然エネルギー手段により排気し前記深層水貯蔵槽内の水面を前記深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を前記円筒状深層水貯蔵槽の上部に移動させ前記水排出用開口より前記円筒状深層水貯蔵槽に貯蔵された深層水を外部に排出する円筒状深層水貯蔵浮体部材と 、底部から挿入される表層水を自然エネルギー発電手段により加熱する加熱手段と前記蒸発器を内蔵する円筒状表層水貯蔵浮体部材と、複数個の前記円筒状深層水貯蔵浮体部材及び前記円筒状表層水貯蔵浮体部材を円筒状に交互に配置する大型筒円筒状外形円筒浮体部材群と、作動流体の気体を内蔵すると共に円筒内部は太陽光を通過させる海面と略平行な内外径の大きな大型筒円筒型気密空間と、複数個の中間ボール或いは中間円筒コロと前記複数個の中間ボール或いは中間円筒コロと係合する内側壁を具備する大型外形支承部材及び前記複数個の中間ボール或いは中間円筒コロと係合する外側壁と作動気体の流れにより回転するため略等間隔の角度の固定された回転翼を具備する大型内側回転部材とを備え前記大型筒円筒型気密空間内に内蔵された海面と略平行な回転体構造物と、前記大型内側回転部材の回転と歯車連動によりに連動する磁石及びコイルが配置され電磁誘導により公知の如く発電する発電装置と、、前記大型筒円筒型気密空間の下部に配置された前記大型筒円筒状外形円筒浮体部材群と、前記大型筒円筒型気密空間と複数個の前記円筒状深層水貯蔵浮体部材に内蔵された前記凝縮器を連結する第一連結管を内蔵する複数個の第一の気密性柱部材と、前記回転翼に噴射する先端ノズルを備え前記大型筒円筒型気密空間と前記蒸発器を連結する第二連結管を内蔵する複数個の第二の気密性柱部材と、円筒状に交互に配置された複数個の円筒状深層水貯蔵浮体部材と円筒状表層水貯蔵浮体部材に内蔵された複数個の前記凝縮器と隣の複数個の前記蒸発器を連結する作動流体連結管を内蔵する複数個の断熱性遮断結合部材と、前記円筒状深層水貯蔵浮体部材と前記円筒状表層水貯蔵浮体部材の外側に位置し１０メートル以上の空気層と津波に耐えうる重量を有し引張力に耐えうる厚みと高さを備えた一個或いは二個の穴を有する浮体部材の多数個を結合部材によって結合した環状外壁浮体部材と、前記多数個の浮体部材の何れかに備えられ底部に淡水を有する浮体部材と、前記多数個の浮体部材の何れかに配置された風力発電等の自然エネルギー発電装置と、前記環状外壁浮体部材により保持された漁撈装置或いは養殖装置と、前記環状外壁浮体部材を結合部材によって結合した鎖状環状外壁浮体部材をを具備し、記円筒状深層水貯蔵槽内で前記円筒内部貫通部材の上部の空気を排気し前記円筒状深層水貯蔵槽内の水面を前記円筒状深層水貯蔵槽外の水面より上部に移動させることにより前記円筒内部貫通部材を上部に移動させ前記水排出用開口より貯蔵された深層水を前記円筒状深層水貯蔵槽の外に排出して前記ライザー管内の海水又は湖水を上部に移動させ前記円筒状深層水貯蔵浮体部材内の海水又は湖水を循環することにより前記深層水取水開口より深層水を前記円筒状深層水貯蔵槽内に取水すると共に前記大型筒円筒型気密空間と前記凝縮器を連結する複数の前記第一連結管を通過した前記作動気体が前記円筒状深層水貯蔵槽内に内蔵する前記凝縮器により液体の作動流体となり、前記液体の作動流体は前記作動流体連結管を介して前記円筒状表層水貯蔵浮体部材に内蔵された複数の前記蒸発器を通過して気体の作動流体となり複数個の前記第二連結管に備えられた先端ノズルを介して大型内側回転部材の略等間隔の角度の固定された前記回転翼に噴射すると共に前記円筒状深層水貯蔵槽から排出された深層水を前記大型筒円筒型気密空間の大型円筒内の海に排出することを特徴とする。
The second embodiment of the chain-like deep water temperature difference power generation annular fishing device according to the present invention includes a condenser that passes through the working fluid gas deep water, an evaporator that passes through the working fluid gas surface water, and an upper end of one end. A cylindrical deep water storage tank having a large inner and outer diameter, an upper air layer, an upper air discharge opening for discharging the air of the upper air layer, and a water discharge opening on the water surface, and containing the condenser, and the cylinder A riser pipe having a deep water intake opening at the other end at the bottom of the cylindrical deep water storage tank and the inside of the cylindrical deep water storage tank, and the water surface inside is the same as the water surface outside the cylindrical deep water storage tank A cylindrical inner penetrating member having a specific gravity smaller than that of water for closing the water discharge opening, and the air in the upper air layer is exhausted by natural energy means in the cylindrical deep water storage tank. From the water surface outside the deep water storage tank The cylindrical inner penetrating member is moved to the upper part of the cylindrical deep water storage tank by moving it to the section, and the deep water stored in the cylindrical deep water storage tank is discharged to the outside from the water discharge opening. A deep water storage floating body member, a heating means for heating surface water inserted from the bottom by natural energy power generation means, a cylindrical surface water storage floating body member incorporating the evaporator, and a plurality of the cylindrical deep water storage floating bodies Large cylindrical cylindrical outer cylinder floating member group in which the members and the cylindrical surface layer water storage floating floating member are alternately arranged in a cylindrical shape, and the inside of the cylinder is substantially parallel to the sea surface through which sunlight is passed while containing the working fluid gas. Large outer cylindrical bearing member having a large cylindrical cylindrical airtight space with a large inner and outer diameter, a plurality of intermediate balls or intermediate cylindrical rollers, and an inner wall engaged with the plurality of intermediate balls or intermediate cylindrical rollers A large inner rotating member having an outer wall engaged with the plurality of intermediate balls or intermediate cylindrical rollers, and a large inner rotating member having rotating blades fixed at substantially equal intervals for rotation by the flow of working gas. A power generator that generates electric power as is well known by electromagnetic induction in which a rotating body structure substantially parallel to the sea surface incorporated in a cylindrical airtight space, a magnet and a coil that are interlocked with the rotation of the large inner rotating member and gear interlocking are arranged. a ,, and the large cylinder cylindrical airtight the large barrel cylindrical outer cylindrical body members groups arranged in the lower part of the space, is built on the large cylinder cylindrical airtight space and a plurality of said cylindrical deep water storage body members A plurality of first airtight column members having a first connecting pipe for connecting the condenser, and a tip nozzle for injecting the rotary blade, and connecting the evaporator to the large cylindrical airtight space. Second connecting pipe A plurality of built-in second airtight column members, a plurality of cylindrical deep-layer water storage floating members arranged alternately in a cylindrical shape, and a plurality of the condensers built in cylindrical surface-layer water storage floating body members A plurality of heat-insulating cut-off coupling members containing working fluid connecting pipes connecting the plurality of adjacent evaporators, and the cylindrical deep water storage floating member and the cylindrical surface water storage floating member An annular outer wall floating body in which a large number of floating members having one or two holes having a thickness and height capable of withstanding a tensile force and having an air layer of 10 meters or more and having a weight capable of withstanding a tsunami are coupled by a coupling member. A member, a floating member provided in any of the plurality of floating members and having fresh water at a bottom thereof, a natural energy power generation device such as wind power generation disposed in any of the plurality of floating members, and the annular outer wall Fishing held by floating members It comprises a dredging device or aquaculture device and a chain-like annular outer wall floating member obtained by coupling the annular outer wall floating member with a coupling member, and exhausts air above the cylindrical inner penetrating member in the cylindrical deep water storage tank. By moving the water surface in the cylindrical deep water storage tank upward from the water surface outside the cylindrical deep water storage tank, the cylindrical internal penetrating member is moved upward, and the deep water stored from the water discharge opening is stored. By discharging the seawater or lake water in the riser pipe to the upper part by discharging outside the cylindrical deep water storage tank and circulating the seawater or lake water in the cylindrical deep water storage floating member, from the deep water intake opening The cylindrical deep water storage tank takes in deep water into the cylindrical deep water storage tank and passes through the plurality of first connection pipes connecting the large cylindrical airtight space and the condenser. Inside The condenser serves as a liquid working fluid, and the liquid working fluid passes through the plurality of evaporators built in the cylindrical surface water storage floating body member via the working fluid connection pipe and is a gaseous working fluid. It is ejected from the cylindrical deep water storage tank while being sprayed to the rotating blades fixed at substantially equal intervals of the large inner rotating member through the tip nozzles provided in the plurality of second connecting pipes. Deep water is discharged into the sea in the large cylinder of the large cylinder cylindrical airtight space.
本発明による深層水温度差発電津波対策鎖状環状漁業装置の以上の実施形態は、鎖状環状外壁浮体部材が湾の入口の海岸又は砂浜に到達するまで海面に浮かぶのみで津波により何ら強度的影響を受けることなく移動し、海岸又は砂浜或いは岩礁に到達した前記鎖状環状外壁浮体部材は乗り上げ或いは停止すると共に海岸又は砂浜或いは岩礁に到達しない前記鎖状環状外壁浮体部材は海岸又は砂浜或いは岩礁に到達するまで弓状の前記鎖状環状外壁浮体部材は前記鎖状環状外壁浮体部材相互が前記結合部材で結合されながら折れ曲がって移動する。そして湾の入口の海岸又は砂浜に前記鎖状環状外壁浮体部材が乗り上げ、高さが１０メートル以上の空気層の前記鎖状環状外壁浮体部材により湾内への津波の進入を緩和或いは阻止することが可能である。又、例えば前記円形鎖状環状外壁浮体部材の端部を重複して複数個の弓状の前記鎖状環状外壁浮体部材を配置することにより平時は船の運行に障害を与えることなく津波の際端部で前記円形鎖状環状外壁浮体部材が重複し湾の入口から湾内への津波の進入を緩和若しくは阻止することが可能となる。
海面上高さが１０メートル以上の空気層と津波に耐えうる重量を有する多数個の浮体部材は、本出願人が既に提案している津波対策浮島（特開２０１５−２１４８６１）に記載している全ての浮体部材を実施可能である。
又、前記多数個の浮体部材を例えば金属線鎖等の結合部材によって海面上垂直に穴を有する浮体部材を結合した環状外壁浮体部材は前記浮体部材に風力発電等の自然エネルギー発電装置を具備しても転倒しない。
また、前記多数個の浮体部材の何れかに備えられ底部に淡水を有しているので津波が発生時の海岸で淡水を供給できる。
又、前記多数個の浮体部材の外界側の外部に金属簾板を前記金属線のくさりに別途の金属線のくさりにより結合して配置して多数個の浮体部材間の間隙を埋める構成にする。
前記環状外壁浮体部材により保持された漁撈装置或いは養殖装置は本出願人が既に提案している漁撈生簀及び漁撈生簀を兼ねる養殖生簀（特開２０１１−２１７６１５）も一実施例であるがそれに限定されないで公知の漁撈装置或いは養殖装置も実施可能である。
The above embodiment of the chain-shaped circular fishery device for counteracting deep water temperature difference power generation tsunami according to the present invention is not strong due to the tsunami, only by floating on the sea surface until the chain-shaped outer ring floating body member reaches the shore or sand beach at the entrance of the bay. The chain-shaped annular outer wall floating member that has moved unaffected and has reached the coast, sandy beach, or reef rides on or stops, and the chain-shaped annular outer wall floating member that does not reach the coast, sandy beach, or reef is the coast, sandy beach, or reef. The chain-like annular outer wall floating member is bent and moved while being joined by the coupling member until the arcuate chain-like annular outer wall floating member is joined. Then, the chain-like annular outer wall floating member rides on the shore or sand beach at the entrance of the bay, and the chain-like annular outer wall floating member having an air layer having a height of 10 meters or more can mitigate or prevent the tsunami from entering the bay. Is possible. In addition, for example, by arranging a plurality of arcuate chain-like annular outer wall floating members overlapping the ends of the circular chain-like annular outer wall floating member at the time of tsunami during normal times without hindering the operation of the ship The circular chain-like annular outer wall floating member overlaps at the end portion, and it becomes possible to mitigate or prevent the tsunami from entering the bay from the entrance of the bay.
A large number of floating members having an air layer with a sea surface height of 10 meters or more and a weight capable of withstanding a tsunami are described in a tsunami countermeasure floating island (Japanese Patent Application Laid-Open No. 2015-214861) already proposed by the present applicant. All floating members can be implemented.
In addition, the annular outer wall floating member in which the floating member having the holes vertically connected to the sea surface is joined to the floating member by a coupling member such as a metal wire chain is provided with a natural energy power generation device such as wind power generation. It does n’t fall.
Moreover, since it is provided in any of the above-mentioned many floating members and has fresh water at the bottom, fresh water can be supplied on the coast when tsunami occurs.
Further, a metal plate is coupled to the outside of the outside of the multiple floating body members by a separate metal wire, and the gap between the multiple floating members is filled. .
The fishing device or aquaculture device held by the annular outer wall floating member is also an example of a fishing ginger (Japanese Patent Laid-Open No. 2011-217615) that has already been proposed by the present applicant and also serves as a fishing ginger. A well-known fishing device or aquaculture device can also be implemented.
大都市及び地下設備が多い東京湾、大阪湾、伊勢湾等の外海では弓状の前記鎖状環状外壁浮体部材を配置すれば、鎖状環状外壁浮体部材は湾の入口の海岸又は砂浜に到達するまで海面に浮かぶのみで津波により何ら強度的影響を受けることなく移動し、海岸又は砂浜或いは岩礁に到達した前記鎖状環状外壁浮体部材は乗り上げ或いは停止すると共に海岸又は砂浜或いは岩礁に到達しない前記鎖状環状外壁浮体部材は海岸又は砂浜或いは岩礁に到達するまで弓状の前記鎖状環状外壁浮体部材は前記鎖状環状外壁浮体部材相互が前記結合部材で結合されながら折れ曲がって移動する。そして湾の入口の海岸又は砂浜に前記鎖状環状外壁浮体部材が乗り上げ、高さが１０メートル以上の空気層の前記鎖状環状外壁浮体部材により湾内への津波の進入を緩和或いは阻止することが可能である。又、例えば前記円形鎖状環状外壁浮体部材の端部を重複して複数個の弓状の前記鎖状環状外壁浮体部材を配置することにより平時は船の運行に障害を与えることなく津波の際端部で前記円形鎖状環状外壁浮体部材が重複し湾の入口から湾内への津波の進入を緩和若しくは阻止することが可能となる。
東北等湾を構成しない太平洋沿岸或いは日本海沿岸でも円形鎖状環状外壁浮体部材を備えた弓状の前記鎖状環状外壁浮体部材の端部の前記円形環状外壁浮体部材を重複して弓状の前記鎖状環状外壁浮体部材を複数個配置すれば平時は船の運行に障害を与えることなく津波の際前記沿岸への津波の進入を高さが５メートル以上（望ましくは１５メートル）の空気層の浮体部材により緩和若しくは阻止することが可能である。
In open seas such as Tokyo Bay, Osaka Bay, and Ise Bay, where large cities and underground facilities are located, if the chain-shaped chain-shaped annular outer wall floating member is placed, the chain-shaped annular outer wall floating member reaches the shore or sand beach at the entrance of the bay. The floating outer wall member that has reached the coast, sandy beach, or reef and has reached the coast, sandy beach or reef does not reach the coast, sandy beach, or reef. The chain-like annular outer wall floating member is bent and moved while the chain-like annular outer wall floating member is coupled to each other by the coupling member until the chain-like annular outer wall floating member reaches the beach, sandy beach or reef. Then, the chain-like annular outer wall floating member rides on the shore or sand beach at the entrance of the bay, and the chain-like annular outer wall floating member having an air layer having a height of 10 meters or more can mitigate or prevent the tsunami from entering the bay. Is possible. In addition, for example, by arranging a plurality of arcuate chain-like annular outer wall floating members overlapping the ends of the circular chain-like annular outer wall floating member at the time of tsunami during normal times without hindering the operation of the ship The circular chain-like annular outer wall floating member overlaps at the end portion, and it becomes possible to mitigate or prevent the tsunami from entering the bay from the entrance of the bay.
The circular annular outer wall floating member at the end of the arcuate chained annular outer wall floating member provided with the circular chain annular outer wall floating member on the Pacific coast or the Sea of Japan coast that does not constitute Tohoku Bay, etc. If a plurality of the chain-like annular outer wall floating members are arranged, an air layer having a height of 5 meters or more (preferably 15 meters) for the tsunami to enter the coast during a tsunami without disturbing ship operation during normal times It is possible to relax or prevent by the floating member.
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| JP2020076219A (en) * | 2018-11-06 | 2020-05-21 | 嘉義 辻本 | Floating tsunami countermeasure device |
| JP2020076287A (en) * | 2019-06-11 | 2020-05-21 | 嘉義 辻本 | Floating tsunami countermeasure device |
| CN114249430A (en) * | 2021-12-21 | 2022-03-29 | 苏州仁和园林股份有限公司 | Water-flow-resistant pneumatic oxygen supply type ecological floating island |
| CN114249430B (en) * | 2021-12-21 | 2024-05-17 | 苏州仁和园林股份有限公司 | Water-flow-resistant pneumatic oxygen supply type ecological floating island |
Also Published As
| Publication number | Publication date |
|---|---|
| WO2019073887A1 (en) | 2019-04-18 |
| JP2019070363A (en) | 2019-05-09 |
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