JP2008172988A - Hybrid power generating device system - Google Patents
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- JP2008172988A JP2008172988A JP2007028567A JP2007028567A JP2008172988A JP 2008172988 A JP2008172988 A JP 2008172988A JP 2007028567 A JP2007028567 A JP 2007028567A JP 2007028567 A JP2007028567 A JP 2007028567A JP 2008172988 A JP2008172988 A JP 2008172988A
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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
- Y02B—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
- Y02B10/00—Integration of renewable energy sources in buildings
- Y02B10/10—Photovoltaic [PV]
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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
- Y02B—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
- Y02B10/00—Integration of renewable energy sources in buildings
- Y02B10/30—Wind power
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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
- Y02B—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
- Y02B10/00—Integration of renewable energy sources in buildings
- Y02B10/50—Hydropower in dwellings
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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
- Y02B—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
- Y02B10/00—Integration of renewable energy sources in buildings
- Y02B10/70—Hybrid systems, e.g. uninterruptible or back-up power supplies integrating renewable energies
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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
- Y02E10/20—Hydro energy
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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
- Y02E10/50—Photovoltaic [PV] energy
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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
- Y02E10/70—Wind energy
- Y02E10/72—Wind turbines with rotation axis in wind direction
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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
- Y02E20/00—Combustion technologies with mitigation potential
- Y02E20/14—Combined heat and power generation [CHP]
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- Control Of Eletrric Generators (AREA)
- Other Liquid Machine Or Engine Such As Wave Power Use (AREA)
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Abstract
Description
全家庭から全企業に及ぶ全ての分野で、発電目的以外で、必要不可欠の既存設備又は新設設備を利用して有効なクリ−ンエネルギ−で省動力の発電装置である。 It is a clean energy-saving power generation device that is effective in all fields from all households to all enterprises, using indispensable existing equipment or new equipment for purposes other than power generation.
近年、省エネルギ−と、クリ−ンエネルギ−の問題が、環境関連と共に大きくクロ−ズアップされる中での発電装置は、太陽光発電と風力発電、或は燃料電池的な未だに実用迄には相当な年月を要する発電装置しかない。 In recent years, power generation devices in which the problems of energy saving and clean energy are greatly closed together with environmental issues are still in practical use for solar power generation and wind power generation, or as fuel cells. There is only a power generation device that takes a long time.
従来から、家庭生活消費材及び各種機器を含む全産業で、上水道、或は工業用水、油圧系統、動力圧縮空気等々、生活及び生産事業に欠かせない物として一般家庭はもとより、全産業、各企業とも、動力或は種々の用途での使用後はその儘排水或は再使用での貯留、圧縮空気等は大気排気放出、このエネルギ−ロスを企業等はこれが当然の方策と思考している。 Conventionally, in all industries including household materials and various equipment, water supply, industrial water, hydraulic system, compressed air, etc. With companies, after use for power or various purposes, dredged drainage or storage for reuse, compressed air etc. is released into the atmosphere, and companies consider this energy loss as a natural measure. .
又、大規模工場の場合は、上水道に変わって工業用水を使用しているが、只飲料水に適していないだけで、同様に使用後は排水廃棄していると同時に、工場生産設備として圧縮空気等は、圧縮動力を消費して放散され、種々の加圧気体を日常的に消費している。 Also, in the case of large-scale factories, industrial water is used instead of water supply, but it is not suitable for drinking water. Similarly, after use, wastewater is discarded and compressed as factory production equipment. Air and the like are dissipated by consuming compression power, and various pressurized gases are consumed daily.
特に、食品関連事業においては、必要やむを得ないこととして大量の上水道を使用し、一般の中小店舗ですら、厨房或は客用水洗トイレ流水等で50トンから100トンの消費を、又食品加工、鮮魚解凍、製鉄工場冷却等では大きな浪費を無意識に行なっているがこれの有効利用は全く無い。 Especially in the food-related business, it is necessary to use a large amount of water supply, and even in general small and medium-sized stores, consumption of 50 to 100 tons in kitchens or flush water for customers, food processing, In the thawing of fresh fish, cooling of steel mills, etc., a large waste is made unconsciously, but there is no effective use of this.
同時に、物を動かす動力機器には、必ず電導モ−タ−が装着されており、殆どが単なる駆動部品としての役目以外にはなく、省エネルギ−設計でも限界が有り、これらを有効に使用すれば、設計以上の電力節約につながる事に気がついていない。 At the same time, power equipment that moves objects is always equipped with a conductive motor, and most of them are not only used as drive parts, but also have limited energy-saving design, so that they can be used effectively. I don't realize that it will save more power than designed.
太陽光発電に至っては、晴雨によって大きく発電量が変わり、太陽光発電単独での発電効率は非常に不安定で、太陽光変換効率もここ何十年間大差なく、又設備費用は国家機関補助受領でも50年で償却可能か否かであろう。 In the case of solar power generation, the amount of power generation greatly changes due to the rain, the power generation efficiency of solar power generation alone is very unstable, the solar conversion efficiency has not changed much in recent decades, and the equipment cost has received subsidy from the national organization But it will be depreciable in 50 years.
風力発電は、風車の風圧効率と地域差による春夏秋冬の風力格差の効率も去る事ながら暴風時期の機器保存の為の稼働停止や強風による風車破損事故も後を立たず、自治体デモンストレ−ション的に装置されているのが現状である。 Wind power generation is not followed by the suspension of equipment storage during storms and the damage of windmills due to strong winds, while leaving the efficiency of wind turbines in spring, summer, autumn and winter due to wind pressure efficiency and regional differences. The current situation is that the system is installed.
太陽光発電は天気に左右され、風力発電は地域的な問題を有し、クリ−ンであるが、1Kw当たりの発電コスト高価につき、場合に依っては設備償却不能とされているように、夫々非常に有効であるが同時に大きな欠点をもっているものの、太陽光発電と風力発電を併合して設置してもなお解消不能な欠点は解消されないことは言う迄もない。 As solar power generation depends on the weather, wind power generation has regional problems and is clean, but the cost of generating electricity per kilowatt is high, and in some cases the equipment is not depreciable, Although each of them is very effective but has significant drawbacks at the same time, it goes without saying that the disadvantages that cannot be solved even if solar power generation and wind power generation are installed together are not solved.
この太陽光発電と風力発電は自然を相手に機構に左右される自然界エネルギ−発電である為、この欠点補完には、人工的発電しかない。 Since this solar power generation and wind power generation are natural energy power generation that depends on the mechanism against nature, there is only artificial power generation to compensate for this drawback.
しかし、自然界の影響を受けない従来の人工的発電の全ては、ダム水力発電から始まって火力蒸気圧タ−ビン発電、内燃機動力発電、近年では廃棄物固形か燃料焼却蒸気圧タ−ビン発電等々を含めて、将来性からバイオエネルギ−発電もあるが、いずれも周辺設備からみれば膨大な設備投資が必要であり、発電コスト的に故人家屋や企業では投資回収は不能である。 However, all of the conventional artificial power generation that is not affected by the natural world begins with dam hydropower generation, thermal steam pressure turbine power generation, internal combustion engine power generation, and recently solid waste or fuel incineration steam pressure turbine power generation, etc. There is also bioenergy power generation from the viewpoint of the future, but all of them require enormous capital investment from the viewpoint of peripheral facilities, and it is impossible to recover the investment in deceased houses and companies in terms of power generation cost.
しかし、これらの自然界のエネルギ−利用発電の欠点を補う人工的エネルギ−利用の発電方法は、既存設備或は新規設備のなかで、液体、気体、各種駆動回転機器等々山ほど有るが利用されていない。 However, artificial energy-based power generation methods that compensate for these disadvantages of energy-based power generation in nature are used in many existing liquid facilities, new facilities, liquids, gases, and various types of driven rotating equipment. Absent.
人工的発電動力は、視点を変えて視れば、人類生活空間及び企業生産工程、或は必要最小限の発電装置しか装備されていない地球上の移動媒体、つまり、航空機、列車、船舶、自動車に至る迄、既存動力源は氾濫している。 Artificial power generation, from a different perspective, is a moving medium on the earth that is equipped with human living space and corporate production processes, or the minimum necessary power generation devices, that is, aircraft, trains, ships, automobiles. Until then, existing power sources are flooded.
一般家庭では、先ず常識的な太陽光発電装置を補助を受けて装備しても、残念ながら太陽光の恩恵を受ける年間効果日数は地球上で地域的に大きな格差が有るが、家庭生活必需設備では全く格差がなく、先ず朝夕の洗面、朝食、昼食、そして夕食の調理水道使用、一日の水洗トイレ使用回数、洗濯、風呂沸かし、これらは天候に関係なく日常的行為として全世界同様であり、真夏の日照り続きにはガ−デニング放水、等々で、水道水配管元では頻繁に水道メ−タ−は回転しており、この管内流体エネルギ−を放置する手はない。 In ordinary households, even if it is equipped with a common-sense solar power generation system with assistance, unfortunately there is a large disparity in the annual effect days that benefit from sunlight. There is no disparity at all, and first of all, it is the same as the world as a daily activity regardless of the weather. In the midsummer sunshine, gardening water discharge, etc., the water meter frequently rotates at the tap water source, and there is no way to leave the fluid energy in the pipe.
同時に、一般家庭で、掃除機、洗濯機、冷蔵庫、時には独立乾燥機、電子レンジ、食器洗浄器、等々、これらには全てが電動モ−タ−を装着しており、装着の電動モ−タ−に対応した発電機を結続すれば、ト−タル的に大きな省エネルギ−となる。 At the same time, in general homes, vacuum cleaners, washing machines, refrigerators, sometimes independent dryers, microwave ovens, dishwashers, etc., all of which are equipped with electric motors, If the generator corresponding to-is connected, the energy saving will be large.
これが産業界の企業設備になれば、全産業で上水道、及び工業用水は絶対的必要物で、その消費水量は大きく、動力の電動モ−タ−に至っては膨大な動力電動機設備も有り、単に既存設備の動力源のみに使用する時代ではない。 If this becomes an industrial enterprise facility, water supply and industrial water are an absolute necessity in all industries, the amount of water consumed is large, and there are enormous power motor facilities for power motors. It is not an era when used only as a power source for existing equipment.
本発明は、これらの液体又は気体の既存設備又は今後の新設設備で、発電以外の用途で設置された、上水道、又は工業用水道、圧縮空気、油圧機器、不活性高圧ガス、或は列車や自動車、船舶、航空機等々の輸送機関等々、無意識的に放出廃棄しているあらゆる液体及び気体の配管内圧力流動を利用し、最も効率の良い発電となる様に考察した。 The present invention is an existing facility for liquid or gas or a new facility in the future, and is installed in an application other than power generation, such as water supply, industrial water, compressed air, hydraulic equipment, inert high-pressure gas, train, We considered the most efficient power generation using the pressure flow of all liquid and gas pipes unconsciously discharged and discarded, such as transportation vehicles such as automobiles, ships and airplanes.
しかし、有効な自家発電装置と言えども稼働制限や欠点も有り、これらを太陽光発電や風力発電の自然界動力発電と人工動力発電とを融合して欠点を補完し合う発電システムの解決しかない。 However, even if it is an effective in-house power generation device, there are operation restrictions and drawbacks, and there is only a solution for a power generation system that complements the disadvantages by integrating natural power generation and artificial power generation of solar power generation and wind power generation.
本発明は、一般家庭からあらゆる分野の産業迄、全ての施設で省エネルギ−実践可能であり、最小限でも水及び電気機器は人間生活環境には不可欠なエネルギ−物質でもあり、それに加えて産業界では職種によっては動力圧縮空気、機器駆動動力電動機、工業用水、等々のエネルギ−として使用している全種を有効に利用し、既存の施設装備或は新設の設備機器を利用して人工エネルギ−利用で発電、同時に太陽光発電から風力発電の自然エネルギ−と共に、発電を補完しあったクリ−ン発電ができ、グロ−バルな温暖化防止を各国民全員で実践可能なシステムで有る。 The present invention can be practiced to save energy in all facilities, from general households to industries in all fields, and at a minimum, water and electrical equipment are also indispensable energy materials for the human living environment. In the industry, depending on the type of job, all types of energy such as power compressed air, equipment-driven motors, industrial water, etc. are used effectively, and artificial energy is utilized using existing facility equipment or newly installed equipment. -It is possible to generate electricity by use, and at the same time, clean power generation that complements power generation along with natural energy from solar power generation to wind power generation, and it is a system that can be used by all citizens to prevent global warming.
重要な事は、従来周知の太陽光発電或は風力発電でのKW/h単位の設置費用は莫大な費用が掛かるが、既存設備のエネルギ−を利用することによって、初期投資費用の極限迄の節約にもつながった。 The important thing is that the installation cost of KW / h unit in the known solar power generation or wind power generation is enormous, but by using the energy of the existing equipment, the initial investment cost can be minimized. It also led to savings.
既存設備或は新規設備、及び新規設計機器の中で、通常の人間生活空間の全てに潜在する人工エネルギ−の利用によって発電するシステムで、気体、液体、それに機器駆動動力のすべてが大小の差はあっても流動エネルギ−を持っており、これらを有効に利用して人工エネルギ−発電に変換し、あわせて、太陽光や風力の自然エネルギ−の利用発電で、お互いを補完しあうシステムである。 A system that generates electricity by using artificial energy that exists in all of the normal human living space among existing equipment, new equipment, and newly designed equipment. However, it has fluid energy, and it is a system that complements each other by using natural energy such as sunlight and wind power. is there.
それには、発電機付設駆動モ−タ−(1)によって加圧された管内流体(6)である圧縮空気は、加圧移送管(3)によって必要供給個所に移送されるが、途中に単数又複数の流管発電機(7)を装着する。 For this purpose, the compressed air, which is the fluid (6) in the pipe pressurized by the generator-equipped drive motor (1), is transferred to the required supply location by the pressurized transfer pipe (3). A plurality of flow tube generators (7) are installed.
発電機付き羽根車(4)の回転によって発電する流管発電機(7)の電力は、そのまま直接に電気消費駆動機器に電気印加するか、又は直流発電或は交流発電で電圧差を含めて電気制御盤(15)によってインバ−タ−制御機器やバッテリ(14)に蓄電されて、有効に電力供給がなされる。 The electric power of the flow tube generator (7) generated by the rotation of the impeller (4) with the generator is directly applied to the electric consumption drive device as it is, or includes a voltage difference by DC generation or AC generation. The electric control panel (15) stores the electric power in the inverter control device and the battery (14), and the electric power is effectively supplied.
同時に、太陽光発電装置(12)や風力発電装置(13)の両者、又は何れか一方の発電装置も併設して融合させて、自然エネルギ−と人工エネルギ−の両者欠点を補完し合うシステムとする。 At the same time, both the solar power generation device (12) and the wind power generation device (13), or any one of the power generation devices are combined and integrated to complement the disadvantages of both natural energy and artificial energy. To do.
この場合、少量発電の場合にはバッテリ−(14)が単体でも良いが、バッテリ−極板衰耗による故障や充填バッテリ−液の減少瑕疵等での故障回避と、管内流体(6)の再使用の為に貯留槽等への移送、及び複数機器への電力格差供給での電圧と電流の差がある為に、並列電圧及び直列結合電圧も考慮して、バッテリ−(14)の複数設置法は、20数年前からの周知の事実である。 In this case, in the case of a small amount of power generation, the battery (14) may be a single unit. However, failure due to battery-electrode plate wear-out, filling battery-liquid reduction, etc., and recirculation of the fluid (6) in the pipe. Installation of multiple batteries (14) in consideration of parallel voltage and series coupling voltage due to differences in voltage and current due to transfer to storage tank for use and power disparity supply to multiple devices The law is a well-known fact from 20 years ago.
一般家庭とその他の全ての産業施設にいたる設備では規模の大小と消費電力では大きな差があることから、当然ながら発電設備能力は利用する動力エネルギ−によって変化するものの、発電システムは同一といっても過言ではない。 Since there is a big difference in the size and power consumption of equipment from ordinary households to all other industrial facilities, naturally the power generation system capacity varies depending on the power energy used, but the power generation system is said to be the same. Is not an exaggeration.
清水を管内流体(6)として使用する場合には飲料水から食品調理水、洗顔から風呂浴槽水やシャワ−水、食品加工調理水、その他あらゆる方面に使用されるが、工業関連では二次清水や工業用水、同時に海水も陸上養殖水槽から製塩事業、船舶ではエンジン冷却水からトイレ用水にいたる迄、あらゆる方面で、既存設備の加圧移送管(3)によって供給使用されている。 When fresh water is used as the pipe fluid (6), it is used for drinking water, food cooking water, face washing, bath tub water, shower water, food processing cooking water, and all other fields. Water and industrial water, as well as sea water, are supplied and used by pressurized transfer pipes (3) of existing equipment in all directions, from onshore aquaculture tanks to salt production, and from ship engine cooling water to toilet water.
管内流体(6)が清海水液体以外の液体の場合、化学工場や原子力発電ではナトリュウム等の不活性液体、工業施設で常時稼働の油圧機器の液体油、これらも想像以上に使用されている。 When the pipe fluid (6) is a liquid other than fresh seawater liquid, an inert liquid such as sodium is used in chemical factories and nuclear power generation, and liquid oil of hydraulic equipment that is always in operation in industrial facilities.
管内流体(6)が気体の場合も、造船工場の様な鋼材加工や居住区木工艤装のグラインダ−やドリルから釘打ち、ジグソウ等のエア−工具では、作業効率の為に軽量化の多様化が年毎に進み、家電工場の組立ライン、自動化ロボットに至る迄油圧機器とエア−工具は不可欠動力源となっている。 Even when the fluid in the pipe (6) is a gas, it is diversified in weight reduction for work efficiency in steel tools such as shipbuilding factories, grinders and drills for living woodworking equipment, nails from drills, and jigsaw. Every year, hydraulic equipment and air tools are indispensable power sources from the assembly line of home appliance factories to automated robots.
これに加えて、発電動力に最も適しているものには電気又は内燃機関によるモ−タ−が有り、既存設備の即戦力につながる動力を放置するわけには行かない。 In addition to this, motors based on electric or internal combustion engines are the most suitable for generating power, and the power that leads to the immediate power of existing equipment cannot be left unattended.
これらの人工エネルギ−の浪費を有効利用することと同時に、当然ながら故障や休暇、或は休憩等々の稼働停止葉必然的に人間の意志で変化が有り、これらの補完を自然エネルギ−利用の太陽光発電、及び風力発電によって補完するもので、バッテリ−や制御盤、或はインバ−−等のコントロ−ラ−は、人工エネルギ−発電の設備で集合制御され、コストメリットも有る。 At the same time as the effective use of these artificial energy wastes, of course, there is a change in the will of human beings due to breakdowns, vacations, breaks, etc. Naturally, there is a change in human intentions, and these supplements are replaced by solar energy utilization. Complementary by photovoltaic power generation and wind power generation, controllers such as a battery, a control panel, or an inverter are collectively controlled by an artificial energy power generation facility, and there is a cost merit.
一例として、「図1」に記したシステムフロ−チャ−ト図は、一般家庭設備も産業施設も規模の差だけでほぼ同様であるが、家電生産ライン工場等での空圧機器利用の工具使用毎に発電するシステムで、この他に、シャワ−、トイレ、手洗い、空調機器、扇風機、等々数え切れない人工エネルギ−の浪費が芯材しているが、これらの消費或は消費毎に発電するシステムで基本システムは全て同一で、末端機器のキャパシティの相違だけである。 As an example, the system flowchart shown in “FIG. 1” is almost the same for general household equipment and industrial facilities only in the difference in scale, but a tool for using pneumatic equipment in a home appliance production line factory or the like. It is a system that generates power every time it is used. Besides, it is a waste of toilets, toilets, hand-washing, air-conditioning equipment, electric fans, and so on. The basic system is the same in the system, only the capacity of the end device is different.
「図1」は、使用例としての直流発電でインバ−タ−により交流100V電圧変換の一例であるが、家電製品組み立てライン或は自動車生産ライでの組み立てボ−ルト、ビス、ナットのエア−工具での絞め付け工程ラインで、加圧空気によるエア−工具使用毎に発電し、空気圧縮機駆動モ−タ−並びにコンベア−駆動モ−タ−稼働中は各駆動モ−タ−付設発電機によって発電、工場休暇時には、自然界が晴天の場合には太陽光発電も、又風が吹けば風力発電も稼働発電し、夜間無風状態でも、工場3交替で24時間稼働の場合には常時発電し、発電既からの電力は制御盤でコントロ−ルして電力供給先に必要電圧電力で供給する為にバッテリを複数に分割してに蓄電、並列電圧と電力、或は直列電圧と電力で供給可能とした例である。 “FIG. 1” shows an example of DC power generation as an example of use, and an AC 100V voltage conversion by an inverter, but an assembly bolt, screw and nut air in an appliance assembly line or an automobile production line. In the tightening process line with tools, power is generated every time the air tool is used with pressurized air, and the generators attached to each drive motor while the air compressor drive motor and conveyor drive motor are in operation. Due to power generation, when the plant is on vacation, solar power is generated when the natural environment is clear, or wind power is generated when the wind blows. In order to control the power already generated by the control panel and supply it to the power supply destination with the necessary voltage power, the battery is divided into a plurality of power supplies, supplied with parallel voltage and power, or supplied with series voltage and power. This is a possible example.
さて、発電機付設駆動モ−タ−(1)によって稼働される流体加圧機(2)の空気圧縮機の加圧移送管(3)を、発電機付き羽根車(4)の羽根車流入口(5)に結続して、加圧移送管(3)内の管内流体(6)の流動によって回転羽根車(8)が回転し、管内流体(6)は、羽根車流出口(9)から加圧移送管(3)によって移送先に送られるが、加圧移送管(3)が長い為、複数の流管発電機(7)を設置した。 Now, the pressure transfer pipe (3) of the air compressor of the fluid pressurizer (2) operated by the generator-equipped drive motor (1) is connected to the impeller inlet ( 5), the rotating impeller (8) is rotated by the flow of the in-pipe fluid (6) in the pressurized transfer pipe (3), and the in-pipe fluid (6) is added from the impeller outlet (9). Although it is sent to the transfer destination by the pressure transfer pipe (3), since the pressure transfer pipe (3) is long, a plurality of flow tube generators (7) are installed.
加圧移送管(3)によって送られた移送先の移送枝管(10)には、複数の流管発電機(7)が管内流体(6)の流量によって仕様選定設置され、末端結続のエア−工具(11)によって、生産ラインの種々作業が行われる。 A plurality of flow tube generators (7) are selected according to the flow rate of the fluid (6) in the transfer branch pipe (10) of the transfer destination sent by the pressurized transfer pipe (3). The air tool (11) performs various operations on the production line.
又、建家の屋根上には太陽光発電装置(12)と風力発電装置(13)が設置されている。 Moreover, the solar power generation device (12) and the wind power generation device (13) are installed on the roof of the building.
このことによって、発電装置は、既設動力による人工的エネルギ−発電、及び自然エネルギ−発電の2系統によって発電される。 As a result, the power generation apparatus generates power by two systems of artificial energy generation using existing power and natural energy generation.
この場合、日照時間が少ない地理的地域、或は日光が当たらないのビルの谷間等で、谷間風は吹く場合は風力発電装置(13)だけ、又日照時間は多いが無風地域ではその逆も有り得るが、既存設備の管内流体(6)のエネルギ−利用の発電機付設駆動モ−タ−(1)を必須設置条件とする理由は、自然エネルギ−は、使わなくてもエネルギ−ロスにはならないが、既存設備動力は発電に利用しなくても、エネルギ−を消費していることを重視したからである。 In this case, the wind power generator (13) is only available in the geographical area where the sunshine hours are short, or the valleys of buildings where sunlight does not shine, and the valley winds, and vice versa in the windless areas where there are many sunshine hours. There is a possibility that the installation motor (1) with a generator that uses the energy of the pipe fluid (6) of the existing equipment is an indispensable installation condition. However, it is because the existing facility power emphasizes that energy is consumed even if it is not used for power generation.
次に、それぞれの発電装置で発電された電力は、バッテリ−(14)の蓄電量及び放電量のコントロ−ルの為にバッテリ−(14)と結線結続の電気制御盤(15)経由で、バッテリ−(14)に蓄電され、電気制御盤(15)は絶えずバッテリ−(14)の充電及び放電を制御監視すると同時に、各発電機の発電状況のコントロ−ルをする。 Next, the electric power generated by each power generation device is connected to the battery (14) and the electric control panel (15) connected to connect the battery (14) for the control of the storage amount and the discharge amount of the battery (14). The battery (14) is charged, and the electric control panel (15) constantly controls and monitors the charging and discharging of the battery (14) and simultaneously controls the power generation status of each generator.
電気制御盤(15)は、発電機付設駆動モ−タ−(1)、流管発電機(7)、太陽光発電装置(12)と風力発電装置(13)は、バッテリ−(14)への蓄電と、電気制御盤(15)内に装着されているインバ−タ−によってバッテリ−(14)の電力を使用電圧に変換し、端末の照明やその他の電気機器に電力供給する。 The electric control panel (15) is connected to the generator (1), the generator motor (1), the flow tube generator (7), the solar power generator (12) and the wind power generator (13) to the battery (14). The electric power of the battery (14) is converted into a working voltage by an inverter installed in the electric control panel (15) and supplied to the terminal lighting and other electric devices.
同時に、発電電力、バッテリ−蓄電状態、故障個所表示、等のモニタ−表示も行った。 At the same time, monitor display such as generated power, battery-power storage status, failure location display, etc. was also performed.
「図2」は、本発明に使用した管内流体(1)が圧縮空気で、回転羽根車(8)と、流管発電機(7)の合体した概要図であるが、圧縮空気の流量は大きくないが流速が早い事から、掌に乗る小型でも自動車搭載の発電機でも十分に稼働発電した。 “FIG. 2” is a schematic diagram in which the fluid (1) in the pipe used in the present invention is compressed air, and the rotary impeller (8) and the flow tube generator (7) are combined. Although it is not large, the flow rate is fast, so even small generators on the palm and generators mounted on automobiles can generate sufficient power.
「図3」は、本発明に使用した管内流体(1)が清水で、回転羽根車(8)と流管発電機(7)の合体した概要図であるが、水道圧力で流量は大きくないが流速が早い事から300mm直径のウオ−タタ−ビンでも自動車搭載の発電機でも十分に稼働発電した。 "FIG. 3" is a schematic diagram in which the pipe fluid (1) used in the present invention is fresh water and the rotary impeller (8) and the flow tube generator (7) are combined, but the flow rate is not large due to the water pressure. However, because of its high flow rate, it was possible to generate sufficient power with either a 300mm diameter water-bin or an on-vehicle generator.
「図4」は、本発明に使用した流体加圧機(2)が空気圧縮機で、電動モ−タ−軸との結合部位にV型ベルトのプ−リ−を装着し、発電機軸に結合して発電する概要斜視図で、この大電力駆動の流体加圧機(2)には大きな余裕動力が有り、これを有効に利用するもので、大きなキャパシティの発電機が付設される。 "Fig. 4" shows that the fluid pressurizer (2) used in the present invention is an air compressor, and a V-belt pulley is attached to a coupling portion with an electric motor shaft and coupled to a generator shaft. The high-power driven fluid pressurizer (2) has a large surplus power, which is used effectively, and is equipped with a generator with a large capacity.
「図5」は、種々の電動モ−タ−軸と発電機の結合部位を直結結合して発電する概要斜視図である。 FIG. 5 is a schematic perspective view of generating electric power by directly coupling and coupling various electric motor shafts and generators.
1 発電機付設駆動モ−タ−
2 流体加圧機
3 加圧移送管
4 発電機付き羽根車
5 羽根車流入口
6 管内流体
7 流管発電機
8 回転羽根車
9 羽根車流出口
10 移送枝管
11 エア−工具
12 太陽光発電装置
13 風力発電装置
14 バッテリ−
15 電気制御盤1 Drive motor with generator
DESCRIPTION OF SYMBOLS 2
15 Electric control panel
Claims (2)
加圧移送管(3)内を人工的或は蒸散や引力落下等で流動する物質移送エネルギ−を電気変換する為に、発電機付き羽根車(4)の羽根車流入口(5)に管内流体(6)を導入して発電機付き羽根車(4)を回転して発電させる流管発電機(7)を、加圧移送管(3)に、単数又は複数、挿入設置する。
流管発電機(7)には、羽根車流入口(5)から導入された管内流体(6)は、回転羽根車(8)を通過して羽根車流出口(9)に抜け、回転羽根車(8)と直結又は増速減速装置経由で発電機を駆動回転するのが発電機付き羽根車(4)でる。
管内流体(6)が流れる加圧移送管(3)の単数個所又は複数個所に、管内流体(6)の導入方向に羽根車流入口(5)を、流出方向に羽根車流出口(9)を接続し、メインの加圧移送管(3)から分岐された移送枝管(10)や、エア−工具(11)等に挿入設置される流管発電機(7)等は、流量と流速及び流体圧力に応じて発電、時には周知の回転検知エンコ−ダ−等、これら人工的エネルギ−で構成の、流管発電機(7)が挿入設置される。
同時に、自然エネルギ−の太陽光発電装置(12)及び風力発電装置(13)の短種又は領主の併設で、人工的或は自然的エネルギ−の欠点補完をも行う事もある。
発電機付設駆動モ−タ−(1)及び既存設備或は新規設備挿入設置の流管発電機(7)の稼働によって、交流発電又は直流発電を行い、電力種変換を要する場合は電気制御盤(15)のインバ−タ−制御機器によって交流又は直流に変換する。
発電機付設駆動モ−タ−(1)及び流管発電機(7)が直流発電の場合は、単数又は複数のバッテリ−(14)に蓄電されて並列及び直列結続バッテリ−(14)から、必要電圧電流が供給されるか、又は必要電力が微弱電流と同時に管内流体(1)の流動で初めて制御が必要となる様な場合には、流管発電機(7)からそのまま必要電力機器への供給印加を行う事もあり、一般生活用品機器や産業電気機器の様な場合で交流電源機器へ電力供給の場合にはバッテリ−(14)に一端蓄電して電気制御盤(15)にて、インバ−タ−制御交流変換と周波数調整を行って交流必要機器への電力を供給する。
発電機付設駆動モ−タ−(1)及び流管発電機(7)が交流発電の場合には規定電圧の流管発電機(7)を使用しても良いが、電気制御盤(15)にてインバ−タ−制御で直流変換してバッテリ−(14)に蓄電、再度バッテリ−(14)からインバ−タ−制御で交流変換して供給される。
発電機付設駆動モ−タ−(1)は、産業や工業の生産販売、及び居住空間の既設或は新設機器は99%以上で電気印加が必要であり、同時に80%以上が何らかの目的で電動モ−タ−を装着しているので、この電動機器の駆動エネルギ−を利用して発電する為に、既存又は新設の機器駆動としての電動モ−タ−の回転駆動力を利用して、回転軸直結伝達、種々のベルト伝達、チェ−ン伝達、歯車伝達、或は液体伝達等々の既存動力伝達で発電機を併設し発電する。
流管発電機(7)は既存設備又は新規設備としての必要不可欠な配管機構系統に挿入設置して発電するものであるが、本発明の基本構成で流管発電機(7)は絶対不可欠発電機構として設置し、これに不随併設して既存動力発電機(11)、及び周知の事実である太陽光発電(12)と風力発電(13)の内の単独種類、或は複数種類を併設することも有り、流管発電機(7)が稼働停止時に、又、総合発電量の増加の為に構成した発電システムで人工エネルギ−発電及び自然エネルギ−発電の両者による、混成発電装置システム。Among existing facilities or new facilities that are indispensable for life-related or industrial production purposes other than power generation, such as pressurized water flow such as fresh seawater, pressurized gases of air and various gases, hydraulic equipment, etc. Substances such as pressurized oil liquid, etc. are all pressurized and transferred in the piping except high temperature steam and liquid fall, and the pressurization drive source is a drive motor (1) with a generator, and the fluid pressurizer By (2), it is sent to the target transfer destination via the pressurized transfer pipe (3).
In order to electrically convert the material transfer energy flowing in the pressurized transfer pipe (3) by artificial or transpiration or attraction drop, etc., the pipe fluid is introduced into the impeller inlet (5) of the impeller (4) with a generator. One or a plurality of flow tube generators (7) that introduce (6) and generate power by rotating the impeller (4) with a generator are inserted and installed in the pressurized transfer pipe (3).
In the pipe generator (7), the pipe fluid (6) introduced from the impeller inlet (5) passes through the rotary impeller (8) and exits to the impeller outlet (9), and the rotary impeller ( The impeller (4) with a generator drives and rotates the generator directly connected to 8) or through a speed increasing / decelerating device.
The impeller inlet (5) is connected in the direction of introduction of the in-pipe fluid (6) and the impeller outlet (9) is connected in the outflow direction at one or more places of the pressurized transfer pipe (3) through which the pipe fluid (6) flows. The transfer branch pipe (10) branched from the main pressurized transfer pipe (3), the flow tube generator (7) inserted and installed in the air-tool (11), etc. A flow tube generator (7) composed of these artificial energies, such as a power generation according to pressure and sometimes a known rotation detection encoder, is inserted and installed.
At the same time, the shortcomings of the natural energy solar power generation device (12) and the wind power generation device (13) or the lord are sometimes supplemented with defects of artificial or natural energy.
If the drive motor with generator (1) and the existing equipment or the new tube insertion flow tube generator (7) are operated, AC power or DC power is generated. Conversion to alternating current or direct current is performed by the inverter control device of (15).
When the generator-equipped drive motor (1) and the flow tube generator (7) are DC power generation, they are stored in one or a plurality of batteries (14) and are connected in parallel and series connected batteries (14). When the necessary voltage / current is supplied, or when the necessary power is required to be controlled for the first time by the flow of the fluid (1) in the pipe simultaneously with the weak current, the necessary power equipment is directly supplied from the flow tube generator (7). In the case of power supply to AC power supply equipment in the case of general household appliances and industrial electrical equipment, the battery (14) is charged once and stored in the electrical control panel (15). Then, inverter-controlled AC conversion and frequency adjustment are performed to supply power to AC-required equipment.
When the generator-equipped drive motor (1) and the flow tube generator (7) are AC power generation, a flow tube generator (7) with a specified voltage may be used, but the electric control panel (15) Then, DC conversion is performed by inverter control, power is stored in the battery (14), and AC conversion is performed again from the battery (14) by inverter control.
The drive motor with generator (1) requires 99% or more of electricity to be applied to industrial or industrial production and sales, and existing or new equipment in the living space. At the same time, 80% or more is electrically driven for some purpose. Since it is equipped with a motor, in order to generate power using the drive energy of this electric equipment, it uses the rotational driving force of the electric motor as an existing or new equipment drive to rotate. A power generator is added to the existing power transmission such as direct shaft transmission, various belt transmission, chain transmission, gear transmission, or liquid transmission.
The flow tube generator (7) is inserted into an indispensable piping mechanism system as an existing facility or a new facility to generate power, but the flow tube generator (7) is absolutely indispensable in the basic configuration of the present invention. It is installed as a mechanism, and the existing motive power generator (11) and the known types of solar power generation (12) and wind power generation (13), or a single type or a plurality of types, are provided side by side. There is also a hybrid power generation system that uses both artificial energy generation and natural energy generation in a power generation system configured to stop the operation of the flow tube generator (7) or increase the total power generation amount.
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KR101576868B1 (en) * | 2013-12-17 | 2015-12-11 | 박유진 | Power generating facility using water flow |
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KR20200090478A (en) * | 2019-01-21 | 2020-07-29 | 함영욱 | Generating system using compressed air |
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WO2011033765A1 (en) * | 2009-09-16 | 2011-03-24 | Koshio Kenji | Energy-saving system, energy-saving device, and energy-saving type air compressor |
JP5126861B2 (en) * | 2009-09-16 | 2013-01-23 | 健治 小塩 | Energy-saving system, energy-saving device, and energy-saving air compressor |
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WO2013187713A1 (en) * | 2012-06-13 | 2013-12-19 | (주)세미머티리얼즈 | Power-generating livestock pen |
KR101576867B1 (en) * | 2013-12-17 | 2015-12-11 | 박유진 | Hydraulic generating apparatus |
KR101576868B1 (en) * | 2013-12-17 | 2015-12-11 | 박유진 | Power generating facility using water flow |
WO2016199961A1 (en) * | 2015-06-11 | 2016-12-15 | 박유진 | Power generation facility using water flow and hydroelectric power generation device |
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KR20200090478A (en) * | 2019-01-21 | 2020-07-29 | 함영욱 | Generating system using compressed air |
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