JP2010246257A - Direct current electricity management system and far-infrared laser hot-water supply system - Google Patents

Direct current electricity management system and far-infrared laser hot-water supply system Download PDF

Info

Publication number
JP2010246257A
JP2010246257A JP2009091852A JP2009091852A JP2010246257A JP 2010246257 A JP2010246257 A JP 2010246257A JP 2009091852 A JP2009091852 A JP 2009091852A JP 2009091852 A JP2009091852 A JP 2009091852A JP 2010246257 A JP2010246257 A JP 2010246257A
Authority
JP
Japan
Prior art keywords
power
closed
far
infrared laser
power generation
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Granted
Application number
JP2009091852A
Other languages
Japanese (ja)
Other versions
JP2010246257A5 (en
JP5590592B2 (en
Inventor
Toshihisa Shirakawa
白川利久
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Individual
Original Assignee
Individual
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Individual filed Critical Individual
Priority to JP2009091852A priority Critical patent/JP5590592B2/en
Publication of JP2010246257A publication Critical patent/JP2010246257A/en
Publication of JP2010246257A5 publication Critical patent/JP2010246257A5/ja
Application granted granted Critical
Publication of JP5590592B2 publication Critical patent/JP5590592B2/en
Expired - Fee Related legal-status Critical Current
Anticipated expiration legal-status Critical

Links

Images

Classifications

    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02BCLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
    • Y02B10/00Integration of renewable energy sources in buildings
    • Y02B10/10Photovoltaic [PV]
    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E10/00Energy generation through renewable energy sources
    • Y02E10/50Photovoltaic [PV] energy
    • Y02E10/56Power conversion systems, e.g. maximum power point trackers
    • YGENERAL 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E60/00Enabling technologies; Technologies with a potential or indirect contribution to GHG emissions mitigation
    • Y02E60/10Energy storage using batteries

Landscapes

  • Supply And Distribution Of Alternating Current (AREA)
  • Direct Current Feeding And Distribution (AREA)
  • Charge And Discharge Circuits For Batteries Or The Like (AREA)
  • Secondary Cells (AREA)
  • Instantaneous Water Boilers, Portable Hot-Water Supply Apparatuses, And Control Of Portable Hot-Water Supply Apparatuses (AREA)

Abstract

<P>PROBLEM TO BE SOLVED: To effectively use photovoltaic power generation for reducing greenhouse gas. <P>SOLUTION: DC generated by photovoltaic power generation is consumed as it is without converting it into AC. A conventional AC-powered appliance is little simplified, or a converter part is deleted or a converter component is replaced with a resistor component. A far-infrared laser and an optical cable are introduced to a water heater that consumes a large proportion of power at home. <P>COPYRIGHT: (C)2011,JPO&INPIT

Description

太陽光発電による直流の管理と電気給湯に関する。 It relates to direct current management and electric hot water supply by solar power generation.

図1は現行の太陽発電システム(非特許文献1)の概観模式図例である。太陽光電池(101)からの実線矢印で示した直流を接続箱(102)に集中させてから交流変換器(103)で電灯線電圧よりも若干高い電圧の点線矢印で示した交流に変換し、太陽光電池(101)からの交流総発電量は交流分電盤(104)を通って交流電源家庭内電気機器(106)に内蔵もしくは前置されているコンバータ(105)で直流に変換してから交流電源家庭内電気機器(106)本体で消費される。近年の直流駆動の半導体を多用している交流電源家庭内電気機器(106)はコンバータ(105)を必要とする。例えば、パソコンではコンバータ(105)を介して直流を得て、インタネット情報交換やインタネットテレビ視聴や諸計算をする。現在の商用電気は交流で運ばれてきているため、電気製品は交流電源で動いているように見えるが、実際は交流電源をまず直流にしてから作動するようにしているものが多い。
消費しきれずに余剰となった分は、電灯線に向かって電流が流れるときのみ回転する計量検査合格済の逆転防止逆潮流積算電力計(56)を通過した後、住宅内に向かって電流が流れるときには回転しない計量検査合格済の逆転防止需要量積算電力計(57)を通って逆潮流として電力会社に電力を供給する。電灯線から交流電源家庭内電気機器(106)に流れた電力は逆転防止需要量積算電力計(57)で計測され今まで通りの販売価格で家庭に売られる。逆潮流して電灯線に流れた電力は逆転防止需要量積算電力計(57)では計測されない。
逆潮流として家庭から電灯線に流れた電力は逆転防止逆潮流積算電力計(56)で計測され、電力販売社はこの逆潮流した電力を販売価格の2倍程度で購入する。
太陽光電池(101)から交流分電盤(104)を介して交流電源家庭内電気機器(106)に消費された電力は無料である。
交流電源家庭内電気機器(106)に消費された電力が無料になっただけでは太陽光電池(101)、接続箱(102)、交流変換器(103)、交流分電盤(104)、逆転防止装置付積算電力計等の設置費用を償却できない。逆潮流した電力を販売価格の2倍程度で購入してもらっても不足である。そこで、現行の太陽発電システム設置の際は国から補助金が付けられている。
給湯は家庭内消費エネルギーの中で比較的高い割合を占める。温水は電気給湯器(204)から給湯管(205)を通って水平蛇口首管(202)から水道蛇口(201)に到る。水道の開閉栓(203)が閉じていて送水されないと、水平蛇口首管(202)部には水が抜けていて空気が溜まっている。開閉栓(203)を開いて水道蛇口(201)に温湯が出るまでには長い道程を通るため若干時間がかかる上、初めに冷水が出てくる。
図2は、商用交流電源を動力に利用している工場等における負荷概観図である。モータを制御駆動するには、商用電源である交流をインバータ装置に内蔵するコンバータ部で直流にコンバートし、続いて当該直流をインバータ装置に内蔵するインバータ部のトランジスタ等により比較的自由に幅広い高周波交流に変換し、変圧器で幅広く交流電圧変換してモータ駆動を比較的自由に調節する。なお、コンバータ部とインバータ部をまとめたものを一般にインバータ装置と呼んでいる。インバータ装置は、駆動対象となる誘導電動機を選ばずに安定に回転を制御する一種の電源装置である。インバータ装置はエアコン等のモータ使用家電製品は元より高級蛍光灯にも内蔵されている。
:オーム社、1991年、省電力と自動化編集部編「インバータ技術活用マニュアル」
FIG. 1 is an example of a schematic diagram of an existing solar power generation system (Non-Patent Document 1). The direct current indicated by the solid line arrow from the solar battery (101) is concentrated on the connection box (102) and then converted into the alternating current indicated by the dotted line arrow having a voltage slightly higher than the lamp line voltage by the AC converter (103). The total amount of AC generated from the solar battery (101) is converted to DC through the AC distribution board (104) and converted into DC by the converter (105) built in or placed in the AC power source household electrical device (106). The AC power is consumed by the home electric device (106). The AC power supply household electric appliance (106) that uses a lot of DC-driven semiconductors in recent years requires a converter (105). For example, a personal computer obtains a direct current through a converter (105), and performs Internet information exchange, Internet television viewing, and various calculations. Since current commercial electricity is carried by alternating current, electrical products appear to be powered by an alternating current power supply, but in reality, many of the products are operated after the alternating current power supply is first turned into direct current.
The surplus that cannot be consumed is passed through the reverse flow prevention wattmeter (56) that has passed the measurement test that rotates only when the current flows toward the power line, and then the current flows into the house. Electric power is supplied to the electric power company as a reverse power flow through a non-reverse demand integrated power meter (57) that has passed a measurement test that does not rotate when flowing. The electric power flowing from the power line to the AC power supply household electric appliance (106) is measured by the reverse rotation prevention demand integrating wattmeter (57) and sold to the home at the same selling price as before. The power flowing in the power line due to the reverse power flow is not measured by the reverse rotation preventive demand integrating wattmeter (57).
The electric power flowing from the home to the power line as a reverse power flow is measured by a reverse flow preventive reverse flow integrating wattmeter (56), and the power sales company purchases the reverse power flow at a price about twice the sales price.
The electric power consumed from the solar battery (101) to the AC power source household electrical device (106) via the AC distribution board (104) is free.
AC power supply Home electric appliance (106) is consumed free of electricity, solar battery (101), junction box (102), AC converter (103), AC distribution board (104), prevention of reverse rotation Cannot amortize the installation cost of integrated wattmeters with equipment. It is not enough to have the reverse power flow purchased at twice the selling price. Therefore, a subsidy is attached from the government when the current solar power generation system is installed.
Hot water supply accounts for a relatively high percentage of household energy consumption. Hot water passes from the electric water heater (204) to the water tap (201) through the horizontal tap neck (202) through the hot water pipe (205). If the water tap (203) is closed and water is not supplied, water has been removed from the horizontal faucet neck (202) and air has accumulated. It takes a long time to open hot water at the tap (201) after opening the open / close tap (203), and it takes some time, and cold water comes out first.
FIG. 2 is an overview of loads in a factory or the like that uses commercial AC power as power. To control and drive the motor, AC power, which is a commercial power supply, is converted to direct current by a converter unit built in the inverter device, and then the direct current is converted into a wide range of high-frequency alternating currents relatively freely by transistors in the inverter unit built in the inverter device. And convert AC voltage widely with a transformer to adjust motor drive relatively freely. In addition, what put together the converter part and the inverter part is generally called the inverter apparatus. The inverter device is a kind of power supply device that stably controls rotation without selecting an induction motor to be driven. Inverter devices, motor-consumed home appliances such as air conditioners, are also built into high-end fluorescent lamps.
: Ohm, 1991, Power Saving and Automated Editing Department “Inverter Technology Utilization Manual”

地球温暖化の元凶とされている炭酸ガス発生を徹底的に抑制したい。地球環境問題解決の1つに、炭酸ガスを放出する化石燃料燃焼による交流発電に代わって個人家庭の屋根に太陽光発電装置を設置して太陽光エネルギーを直流電気に変換し、更に交流を電源とする仕様になっている大方の家電製品が使えるように太陽光発電装置からの直流を交流に変換してから当該家庭の交流仕様の家電製品で消費する。余剰交流電力は商用交流電源に戻す。商用交流電源を使うことを前提としている大方の交流電源仕様の家電製品(例えば、エアコンではインバータ装置で交流電源を直流に変換してから再度適切な交流に変換してモータ速度を自由に調節している)では交流電源から直流への変換に電力損失が出る。
このように、直流を交流に変換するには交流変換器(103)等の付属設備費が必要であり、更に余剰交流電力を商用交流電源に戻すにも逆転防止逆潮流積算電力計(56)等の付属設備費が必要であるから電気代は非常に高いものになる。
従来の太陽光エネルギー利用は、国からの補助金や電力会社経由で一般家庭に広く薄く課した高額買電規制によってしか成り立たない。消費者にとって、太陽光による電気と化石燃料燃焼による電気との区別はつかないから、電気料金の大きな違いは納得しにくい。無理なことが長続きするとは思えない。
そうは言っても、地球環境問題解決のために炭酸ガスを発生する化石燃料使用を抑制したい。更に、日本経済にとって重要である化石燃料(石油や天然ガス)が輸入できなくなると国の根幹技術崩壊危機が発生しかねない。そこで、太陽光エネルギー利用の仕方にもう一工夫を凝らす必要がある。すなわち、個人家庭の屋根に太陽光発電装置を設置して交流に変換するやり方に問題がないか。
一方、電気の利用の仕方に問題はないか。例えば、家庭内消費エネルギーの中で比較的高い割合を占める給湯に問題がないか。開閉栓(203)を開いて水道蛇口(201)に温湯が出るまでには若干時間がかかる。実際に温水が出るまでの電気給湯器(204)での電気は無駄なように思える。風呂や炊事場での給湯において、蛇口を開いても温湯はすぐには出ずに最初は冷水である。一寸した手洗いでも、蛇口を開けばガス燃焼はすれども温湯が出ないうちに終了してしまう。使用が終わっても給湯管(205)の中には暖水が残っているがそれは自然に冷却されるからその分のエネルギー消費は無駄になってしまう。電気給湯器(204)から給湯管(205)を通って水道蛇口(201)に到るまでに漏洩するエネルギーも馬鹿にならないばかりでなく、地球温暖化に寄与してしまう。
炭酸ガス放出の削減に寄与する家庭内電気機器として蓄電池駆動自動車(100)が重要になってくる。したがって、炭酸ガス放出の削減に寄与する家庭内電気機器としての特徴を持った蓄電池駆動自動車(100)重要である。
I want to thoroughly control the generation of carbon dioxide, which is considered the cause of global warming. One solution to global environmental problems is to install solar power generators on the roofs of individual households instead of AC power generation by fossil fuel combustion that emits carbon dioxide gas, convert solar energy into DC electricity, and further supply AC power In order to be able to use most household electrical appliances that have specifications, the direct current from the photovoltaic power generation device is converted into alternating current and then consumed by the household electrical appliances of the household AC specification. Surplus AC power is returned to commercial AC power. Most home appliances with AC power supply specifications that presuppose the use of commercial AC power (for example, in an air conditioner, convert the AC power to DC with an inverter and then convert it to an appropriate AC again to freely adjust the motor speed. Power loss occurs in conversion from AC power to DC.
Thus, in order to convert direct current into alternating current, additional equipment costs such as an alternating current converter (103) are required, and in order to return surplus alternating current power to a commercial alternating current power supply, a reverse flow preventing reverse flow integrating wattmeter (56) The cost of electricity is very high because of the additional equipment costs.
Conventional use of solar energy can only be realized by high-priced power purchase regulations that are widely and thinly imposed on ordinary households through subsidies from the country and power companies. For consumers, there is no way to distinguish between electricity from sunlight and electricity from fossil fuel combustion, so it is difficult to convince the big difference in electricity charges. I don't think it will last long.
That said, we want to curb the use of fossil fuels that generate carbon dioxide to solve global environmental problems. Furthermore, if fossil fuels (oil and natural gas), which are important for the Japanese economy, cannot be imported, the country's fundamental technology collapse crisis may occur. Therefore, it is necessary to devise another way of using solar energy. In other words, is there a problem with the method of installing a photovoltaic power generation device on the roof of a private home and converting it to alternating current?
On the other hand, is there any problem in how to use electricity? For example, is there a problem with hot water supply that accounts for a relatively high percentage of household energy consumption? It takes some time for the hot water to come out of the tap (201) after opening the open / close tap (203). Electricity in the electric water heater (204) until hot water actually comes out seems to be useless. In hot water supply in a bath or a kitchen, hot water does not come out immediately even if the faucet is opened, and cold water is initially used. Even with a hand wash, if you open the faucet, gas combustion will end before hot water comes out. Even after the use is finished, warm water remains in the hot water supply pipe (205), but it is naturally cooled, so that energy consumption is wasted. The energy leaked from the electric water heater (204) through the hot water pipe (205) to the water tap (201) is not only foolish but also contributes to global warming.
A battery-powered automobile (100) becomes important as an electric appliance in the home that contributes to the reduction of carbon dioxide emission. Therefore, the battery-powered automobile (100) is important as a domestic electric device that contributes to the reduction of carbon dioxide emission.

太陽光エネルギーから太陽光電池等で発生する直流電気を交流に変換することなく、家庭内の家電製品を直流電源仕様にして、直流をそのまま使用する。
土地代が安く広い地域の住宅屋根に太陽光電池を設置するのは馬鹿げているし、土地代の高い地域の住宅は密集しているから住宅屋根に太陽光電池を設置しても日陰ができて効果がない。したがって、太陽光発電設備を各個人の家庭に設置するのではなく、閉じた地域である未利用工業団地等の広い空き地に太陽光発電設備を設置した閉域太陽光発電所(2)から、当該閉域太陽光発電所(2)周辺の各家庭は直流電気を買電する。
また、逆転防止逆潮流積算電力計(56)等設備を余分に敷設してまで電力会社に高額売電しない。夜間等の直流電気は、電力会社からの交流電気を直流に変換して貰いその直流電気を買う。太陽光発電を主にして不足分を電力会社系統線からの交流で補う。
閉域太陽光発電所(2)で発電した直流を閉地域の周辺家庭等の直流電源使用所(20)または蓄電池駆動自動車(100)に閉域直流電線(3)で供給する。
閉域直流電線(3)に敷設した低電圧蓄電池(6)で電力需給を自動的に緩和する。閉域直流電線(3)に敷設した電圧計(11)から送られた電圧を閉域電力管理PHS携帯内蔵コンピュータ(10)に読み込み計測監視する。閉域電力管理PHS携帯内蔵コンピュータ(10)に内蔵する計算プログラムで閉地域の電力供給を管理する。
当該コンピュータが直流供給電力不足を判断した場合は閉域太陽光発電所(2)に敷設せる太陽光発電削減設備(12)に課していた発電量削減を減らし太陽光発電量を増やした後、既存交流系統電線(1)から交流を買電受電し計量済電力計付交直変換器(5)により直流の供給量を増加させ閉域直流電線(3)への給電を増加する。
当該コンピュータが直流供給電力過剰を判断した場合は既存交流系統電線(1)からの交流買電受電を減らし計量済電力計付交直変換器(5)により直流の供給量を減らした後、太陽光発電削減設備(12)に課していた発電量削減を更に強め閉域太陽光発電所(2)の発電電力量を減少させ閉域直流電線(3)への給電を減少させる。
当該コンピュータが緊急直流供給電力不足を判断した場合はPHS携帯制御計量済直流双方向電力計(31)を介して蓄電池駆動自動車(100)から逆潮流受電する。
上記のような閉地域の電力供給を管理する閉地域太陽光発電管理システムで太陽光を有効に利用し電力料金を安くする。
なお、畑所有者が賃料を受けて電力会社に送電線鉄塔を建てさせているように、各家庭の1部庭等を当該閉域太陽光発電所(2)に賃貸して太陽光発電を許可することもできる。
太陽光発電に不向きな北側斜面や谷間や多雨地域では風車回転で発生させた乱雑な交流を直流に変換し蓄電池を介して安定化させてから閉域直流電線(3)に送電する。太陽光発電は長期寒波や長期雨天に弱点があるから、弱点埋め合わせのために風力発電を補助電源と位置づけ閉域太陽光発電所(2)の1部に設置しておくのは有効であろう。
太陽光発電、風力発電、自走式蓄電池とも言える蓄電池駆動自動車(100)、既存交流系統電線(1)から交流の買電受電のベストミックスが現実的であろう。
炭酸ガス抑制は発電側だけではなく電力消費側の節電でも寄与する。電力消費の大きい給湯システムを以下のように改良した節電は炭酸ガス抑制に寄与する。
水道の開閉栓(203)と調温レバー(206)機能を一体化した調温兼開閉栓(207)の調温操作と同時に微弱信号線(303)からの信号で遠赤外線レーザ発生装置(300)を作動させる。発生した遠赤外線レーザを光ケーブル(302)で上向蛇口首管(208)部に敷設したレーザ照射口(301)に導く。遠赤外線レーザを上向蛇口首管(208)部の水に照射することにより当該水の昇温を開始する。調温兼開閉栓(207)の調温操作から若干の時間遅れをもって調温兼開閉栓(207)の送水操作によって送水と遠赤外線レーザ発生装置(300)連続作動を開始する。調温兼開閉栓(207)閉と同時に微弱信号線(303)からの信号で遠赤外線レーザ発生装置(300)を停止させる。これが本発明の遠赤外線レーザ給湯システムである。遠赤外線は水に吸収され易いため水温上昇に適している。
遠赤外線レーザ発生装置(300)を作動させて発生した遠赤外線レーザを光ケーブル(302)で浴室浴槽内に導き浴槽内の湯を追い炊きする遠赤外線レーザ追い炊きシステムである。水道量を増やさずに浴槽水温度を上昇させることができるため、水資源の節約と節電にもなる。浴槽水温度を上昇させるために高温湯を注ぎ足す方式では、上面まで湯が張られている浴槽内の低温の湯を捨てることになる。無駄がでてしまう。
本発明では、温水量は上向蛇口首管(208)部にある必要最小限の水量であるため省エネルギーになる。更に、直流電気を赤外線レーザに変換してから蛇口に送るため使用者の感電を防ぐことができる。
遠赤外線レーザ発生装置(300)は屋外に設置してもよい。
上記本発明の遠赤外線レーザ給湯システムや遠赤外線レーザ追い炊きシステムは、交流電灯線を電源としてもインバータ装置により有効に作動する。
閉域太陽光発電所(2)として、近隣各家庭の庭や屋根に設置した太陽光発電設備のみとすることもできる。なお、各個人住宅でも太陽光電池設置と、蓄電池駆動自動車(100)(自走式蓄電池とも言える)と、商用交流から直流への変換器設置とで直流利用家庭になる。
すなわち、太陽光電池(101)からの直流を接続箱(102)に集中させ電圧を高めて車用取替蓄電池(402)を通した直流と、逆転防止需要量積算電力計(57)または現行需要量積算電力計(現在通常家庭に設置されている交流電源の電力計)経由で住宅内に引き込んだ商用交流を交直変換器(401)で車用取替蓄電池(402)定格電圧よりも低い電圧の直流に変換した直流とを住宅内の直流分電盤(112)に集め、直流分電盤(112)から伸びて住宅内主要箇所に引き回された直流電線(113)から直流抵抗器(122)で適切な電流と電圧に調節し直流電源家庭内電気機器(121)を作動させた直流太陽発電システムとする。
蓄電池駆動自動車(100)は、3個の車用取替蓄電池(402)を駆動源とし、3バッチ交換で車用取替蓄電池(402)を交換し、充電用として予備に車用取替蓄電池(402)を持つようにした3バッチ交換の蓄電池駆動自動車(100)がよい。
Without converting direct current electricity generated from solar energy into solar cells into alternating current, home appliances in the home are used as direct current power specifications and direct current is used as it is.
It is ridiculous to install solar cells on residential roofs in large areas with low land costs, and houses in areas with high land costs are dense, so even if solar cells are installed on the roofs, they can be shaded and effective There is no. Therefore, instead of installing solar power generation facilities in each individual's home, from the closed solar power plant (2) that installed solar power generation facilities in a wide open space such as an unused industrial park in a closed area, Each household around the closed solar power plant (2) purchases DC electricity.
In addition, a large amount of power is not sold to an electric power company until an extra facility such as a reverse flow preventing reverse flow integrating wattmeter (56) is installed. For direct current electricity at night, etc., AC electricity from electric power companies is converted into direct current, and the direct current electricity is purchased. The shortage will be compensated mainly by solar power generation with AC from power company lines.
The direct current generated by the closed solar power plant (2) is supplied to the DC power source using place (20) or the battery powered vehicle (100) of a household in the closed region by the closed DC power line (3).
The power supply and demand is automatically eased by the low voltage storage battery (6) laid on the closed DC wire (3). The voltage sent from the voltmeter (11) installed in the closed DC power line (3) is read into the closed power management PHS portable computer (10) and measured and monitored. Closed area power management The power supply in the closed area is managed by a calculation program built into the PHS portable computer (10).
If the computer determines that the DC power supply is insufficient, after reducing the power generation reduction that was imposed on the solar power generation reduction facility (12) that can be installed in the closed solar power plant (2), The AC power is purchased from the existing AC power line (1) and the DC supply amount is increased by the AC / DC converter (5) with a metered wattmeter to increase the power supply to the closed DC power line (3).
If the computer determines that the DC power supply is excessive, the AC power received from the existing AC power line (1) is reduced and the DC power supply is reduced by the AC / DC converter with metered power meter (5). The power generation amount reduction imposed on the power generation reduction facility (12) is further strengthened, the power generation amount of the closed solar power plant (2) is reduced, and the power supply to the closed DC power line (3) is reduced.
If the computer determines that the emergency DC supply power is insufficient, it receives reverse power flow from the battery-powered vehicle (100) via the PHS portable control metered DC bidirectional power meter (31).
The closed area solar power generation management system that manages the power supply in the closed area as described above effectively uses sunlight to reduce the electricity charge.
In addition, as the field owners receive rents and let the electric power company build a transmission line tower, they rent a part of the garden of each household to the closed solar power plant (2) and allow solar power generation You can also
In north slopes, valleys, and heavy rain areas that are not suitable for photovoltaic power generation, messy alternating current generated by rotating the windmill is converted to direct current and stabilized via a storage battery before being transmitted to the closed direct current electric wire (3). Since solar power generation has weak points in long-term cold waves and long-term rain, it would be effective to install wind power generation as an auxiliary power source in the closed solar power plant (2) to make up for the weak points.
The best mix of solar power, wind power, self-propelled storage battery-powered automobiles (100), and existing AC power lines (1) for AC power purchase and reception would be realistic.
Carbon dioxide suppression contributes not only to the power generation side but also to power saving on the power consumption side. Saving electricity by improving the hot water supply system with high power consumption as follows contributes to the suppression of carbon dioxide.
The far-infrared laser generator (300) receives a signal from the weak signal line (303) simultaneously with the temperature control operation of the temperature control / open / close switch (207) which integrates the functions of the water tap (203) and the temperature control lever (206). ). The generated far-infrared laser is guided by an optical cable (302) to a laser irradiation port (301) laid on the upward faucet neck tube (208). By irradiating the far-infrared laser to the water in the upward faucet neck tube (208), the temperature of the water is started. Water supply and the far-infrared laser generator (300) start a continuous operation by a water supply operation of the temperature adjustment / opening / closing plug (207) with a slight time delay from the temperature adjustment operation of the temperature adjustment / opening / closing plug (207). The far-infrared laser generator (300) is stopped by a signal from the weak signal line (303) at the same time as the temperature control and opening / closing plug (207) is closed. This is the far infrared laser hot water supply system of the present invention. Far infrared rays are suitable for increasing the water temperature because they are easily absorbed by water.
This is a far-infrared laser cooking system in which a far-infrared laser generated by operating a far-infrared laser generator (300) is guided into a bath tub by an optical cable (302) to cook hot water in the bath. Since the bath water temperature can be raised without increasing the amount of water, water resources can be saved and power can be saved. In the method of adding hot water in order to raise the bath water temperature, the hot water in the bathtub where hot water is stretched up to the upper surface is discarded. It will be useless.
In the present invention, the amount of warm water is the minimum necessary amount of water in the upward faucet neck tube (208) portion, thus saving energy. Furthermore, since direct current electricity is converted into an infrared laser and then sent to the faucet, the user can be prevented from receiving an electric shock.
The far-infrared laser generator (300) may be installed outdoors.
The far-infrared laser hot-water supply system and far-infrared laser reheating system of the present invention are effectively operated by an inverter device even when an AC lamp line is used as a power source.
As the closed solar power plant (2), only the solar power generation facilities installed in the gardens and roofs of neighboring households can be used. In each individual house, a solar cell installation, a storage battery driven automobile (100) (also referred to as a self-propelled storage battery), and a commercial AC to DC converter installation become a DC-utilized home.
That is, the direct current from the solar battery (101) is concentrated in the junction box (102) to increase the voltage and pass through the vehicle replacement storage battery (402), and the reverse rotation prevention demand integrating wattmeter (57) or the current demand. A commercial AC drawn into the house via a quantity integrating wattmeter (currently installed AC power meter currently installed in a home) is a voltage lower than the rated voltage of the replacement storage battery for vehicles (402) by the AC / DC converter (401) The direct current converted into the direct current is collected in the DC distribution board (112) in the house, and the DC resistor (113) extends from the DC distribution board (112) to the main part in the house. In 122), a DC solar power generation system in which the DC power supply household electric appliance (121) is operated by adjusting to an appropriate current and voltage is obtained.
The battery-powered vehicle (100) uses three vehicle replacement storage batteries (402) as a drive source, replaces the vehicle replacement storage battery (402) by three batch replacement, and reserves the vehicle replacement storage battery for charging. A three-batch exchange battery powered vehicle (100) with (402) is preferred.

太陽光発電で発生した直流を敢えて交流に変換することなく直流のまま消費することを前提とした本発明の閉域太陽光発電管理システムや遠赤外線レーザ追い炊きシステムは、従来のような太陽光発電直流を交流に変換しその交流を直流に変換して電気を消費するといった二重変換ロスがないから、電気使用効率向上と電気設備簡素化による設備費削減が可能となった。
高額な逆潮流電力を買い取ってもらう必要がないから、逆転防止逆潮流積算電力計(56)は不要となり設置費用が軽減される。
国にとってはエネルギー資源に対する安全性が高まり、電力会社にとっては高額な逆潮流電力を買い取る必要がなくなるから、閉域太陽光発電管理システム設置費用補助は両者で負担してもらえるだろう。
地方自治体や国の負担になっている未利用工業団地は至る所に在る。利用してやるのだからその1部を補助金としてもらうのには不都合はない。
閉域太陽光発電管理システム敷設により雇用や住人や法人が増えるであろうから直接的にも間接的にも税収が得られるであろう。
特に、閉域太陽光発電管理システムは、自己完結機能維持が要求される自衛隊にとって、うってつけである。国民を守ることを主たる目的とする自衛隊は地球温暖化に無関心ではいられないだろうし、石油値段の上昇や石油量の不足があったからと言って訓練や自衛行動を限定する訳にはいかない。射撃練習場着弾地から手前の空間や広い駐屯地には太陽光発電装置敷設に最適である。電気軍用車(海に囲まれた日本では制空権がなくなれば本土決戦の可能性は少ないから重くて燃料消費が大きい重戦車は含まない。電気自走砲・ロケット砲は含む)や通信装置などの自己消費エネルギーの多くを賄える。天候不順を心配するなら蓄電池の強化や可般小型原子炉を所持すればよい。交流と違って直流は蓄電池やキャパシタに蓄積することができる。
本発明の遠赤外線レーザ給湯システムは省エネ効果が大きいから、太陽光発電設備容量を小さくすることができるため費用が少なくてすむ。更に、感電事故を軽減することができる。
電気での給湯が容易になるから、炭酸ガスや炭素の発生は避けられない天然ガスや水素過多燃料使用による通常消費が減るであろうから温暖化ガスを削減する効果がある。
The closed-area photovoltaic power generation management system and far-infrared laser reheating system of the present invention based on the premise that the direct current generated by solar power generation is consumed as it is without being converted into alternating current. Since there is no double conversion loss of converting direct current to alternating current and converting the alternating current to direct current to consume electricity, it is possible to improve the efficiency of electricity use and reduce the equipment cost by simplifying the electrical equipment.
Since there is no need to purchase expensive reverse flow power, the reverse flow prevention reverse flow integrating wattmeter (56) is not required, and the installation cost is reduced.
The government will be safer on energy resources, and power companies will no longer need to purchase expensive reverse power, so the subsidy for installing a closed solar power management system will be borne by both parties.
Unused industrial parks that are burdened by local governments and countries are everywhere. There is no inconvenience to get a part of it as a subsidy.
Establishing a closed solar power management system will increase the number of employees, residents, and corporations, so tax revenue will be obtained both directly and indirectly.
In particular, the closed solar power management system is ideal for the Self-Defense Forces that require the maintenance of self-contained functions. The Self-Defense Forces, whose main purpose is to protect the public, will not be indifferent to global warming, and it cannot be limited to training and self-defense actions just because of rising oil prices and lack of oil. It is ideal for laying solar power generators in the space near the shooting range and the large garrison. Electric military vehicles (not including heavy self-propelled guns and rocket guns), communication devices, etc. Can cover much of self-consumption energy. If you are worried about bad weather, you can reinforce the storage battery or have a portable small nuclear reactor. Unlike alternating current, direct current can be stored in storage batteries and capacitors.
Since the far-infrared laser hot water supply system of the present invention has a large energy saving effect, the capacity of the photovoltaic power generation facility can be reduced, and the cost can be reduced. Furthermore, an electric shock accident can be reduced.
Since it is easy to supply hot water using electricity, the generation of carbon dioxide and carbon is inevitable, and normal consumption due to the use of natural gas and excessive hydrogen fuel will be reduced.

太陽光発電で発生する直流を交流に変換することなく直流のまま使用することにより電気使用効率を高められた。   By using the direct current generated by solar power generation as it is without converting it into alternating current, the efficiency of electricity use was improved.

図3は本発明の閉域太陽光発電管理システムの概観図である。日本には、未使用工業団地用地や減反休耕田といった広大な未使用空地がある。この未使用空地周辺を閉じた空間である閉地域と考える。この閉地域に太陽光電池を設置し直流発電をさせ閉域太陽光発電所(2)とし、この閉地域限定で張り巡らした閉域直流電線(3)に端子(7)から直流を給電する。
閉地域の住宅や工場といった直流電源使用所(20)は、PHS携帯端末を内蔵したPHS携帯内蔵計量済直流電力計(21)を介して直流を買い取り、使用電力量はPHS携帯端末から閉域電力管理PHS携帯内蔵コンピュータ(10)に送信される。当該コンピュータは、月末に各人の銀行口座から電気代を引き落とす。
電気自動車やハイブリッド車といった蓄電池駆動自動車(100)は、PHS携帯端末を内蔵したPHS携帯制御計量済双方向直流電力計(31)を介してその都度直流をプリペイドカードやスイカカードで取引する。蓄電池駆動自動車(100)から閉域直流電線(3)に逆潮流した場合はPHS携帯制御計量済双方向直流電力計(31)に差し込んだプリペイドカードの残金を増やすようにする。
閉域直流電線(3)には、閉域直流電線(3)に流れる電圧よりも低い電圧に設定した低電圧蓄電池(6)を敷設し電力需給を自動的に緩和する。閉域直流電線(3)に流れる電圧が下がれば低電圧蓄電池(6)から閉域直流電線(3)側に放電する。逆に、閉域直流電線(3)に流れる電圧が上がれば低電圧蓄電池(6)側に閉域直流電線(3)側から直流が流れ蓄電される。
閉域直流電線(3)に電圧計(11)を敷設し常時電圧を計測する。当該閉域のみの電力供給を管理するためにPHS携帯を内蔵させた閉域電力管理PHS携帯内蔵コンピュータ(10)が電圧計(11)からの計測値を読み込み、直流電力供給を計測監視する。閉域電力管理PHS携帯内蔵コンピュータ(10)に内蔵する計算プログラムで閉地域の電力供給を管理する。
当該コンピュータが直流供給電力不足を判断した場合は、閉域太陽光発電所(2)に敷設せる太陽光発電削減設備(12)に課していた発電量削減を減らし太陽光発電量を増やした後、既存交流系統電線(1)から交流を買電受電し計量済電力計付交直変換器(5)により直流の供給量を増加させ閉域直流電線(3)への給電を増加する。
当該コンピュータが直流供給電力過剰を判断した場合は、既存交流系統電線(1)からの交流買電受電を減らし計量済電力計付交直変換器(5)により直流の供給量を減らした後、太陽光発電削減設備(12)に課していた発電量削減を更に強め閉域太陽光発電所(2)の発電電力量を減少させ閉域直流電線(3)への給電を減少させる。
当該コンピュータが緊急直流供給電力不足を判断した場合は、PHS携帯制御計量済直流双方向電力計(31)を介して蓄電池駆動自動車(100)から逆潮流受電する。
太陽光発電削減設備(12)は、電動遮光カーテンや太陽光電池群接続回路中の断線スイッチが考えられる。
電力に不足が生じた場合は、既存交流系統電線(1)から補充できるため、各住宅や工場は個々に蓄電池を設置する必要はないから全体のコストは安くなる。
太陽光発電量が余った時は、太陽光電池を遮光したり、太陽光電池群接続回路中のスイッチを断線したりすればよい。
春秋の需要閑散期には1部設備点検により太陽光発電量を減らせばよい。太陽光エネルギーはタダであるから大きな損害にはならない。なお、既存交流系統電線(1)の電力は本発明の趣旨から炭酸ガスを放出しない原子力発電からのものが主であることが望ましい。
低電圧蓄電池(6)容量は、地域電力需要の30分程度の蓄電容量があれば安定化電源として有効である。
図4−1、図4−2は閉域電力管理PHS携帯内蔵コンピュータ(10)に内蔵する計算プログラムのフローチャート例である。
ステップ0:初期設定値を当該コンピュータに読み込んでおく。
定常時の直流電圧V0を内蔵する。
許容直流電圧誤差dV0を内蔵する。直流電圧がV0 - dV0 からV0 + dV0の範囲なら電力の需要と供給とが均衡しているとみなす。
太陽光発電削減設備(12)の削減割合ss(t)の変動幅dSを内蔵する。
計量済電力計付交直変換器(5)を通って閉域直流電線(3)に流れ出る直流の電流ID(t) の変動幅dD、電流ID(t)の許容値IDmaxを内蔵する。
ステップ1:時刻tでの電気状態を当該コンピュータに常時読み込む。
閉域直流電線(3)に流れる直流電圧V(t)値を電圧計(11)から読み込む。
既存交流系統電線(1)から買電受電して計量済電力計付交直変換器(5)を通って閉域直流電線(3)に流れ出る直流の電流ID(t)値を読み込む。
太陽光発電削減設備(12)の削減割合ss(t) 値を読み込む。
月末に電力料金精算手続きをする。PHS携帯内蔵計量済直流電力計(21)の前月値と当月値とから使用電力値を計算し、登録してある銀行口座から当システムの銀行口座に料金を振り込む手続きを指令する。PHS携帯制御計量済直流双方向電流計(31)はプリペイドカード挿入で作動を開始し、使用電力はプリペイドカードで精算される。
ステップ2:時刻tでの電圧V(t)と設定値V0との差が誤差dV0の範囲内であればステップ3に行く。範囲外であればステップ5に行く。
ステップ3:計量済電力計付交直変換器(5)を通って閉域直流電線(3)に流れ出る直流の電流ID(t)がなければ現状を維持しステップ1に行く。ID(t)があれば、受電量を減らして買電を減らし節約するためにステップ4に行く。
ステップ4:閉地域太陽光発電所(2)の太陽光発電削減設備(12)に削減割合ss(t)をdSだけ減らし太陽光発電量を増やす指令を出すと共に、計量済電力計付交直変換器(5)を通って閉域直流電線(3)に流れ出る直流の電流ID(t) をdDだけ減らする指令を出す。
この操作をss(t)がゼロになり、削減できなくなるまで続ける。
ステップ5:時刻tでの電圧V(t)が設定値V0よりもdV0以上低ければ電力供給不足であると判断してステップ6に行く。電圧V(t)が設定値V0よりもdV0以上高ければ電力供給過多であると判断してステップ8に行く。
ステップ6:電力供給不足であるから、削減割合ss(t)をdSだけ減じて太陽光発電を増やす。削減できなくなるまで続ける。削減がなくても電力供給不足ならステップ7に行き交流を買い直流に変換する。
ステップ7:計量済電力計付交直変換器(5)を通って閉域直流電線(3)に流れ出る直流の電流ID(t) をdDだけ増す。ID(t)が許容値IDmaxを超えたら交流買い増しを中止する。キーボード操作でPHS携帯制御計量済直流双方向電力計(31)に指令を出して、接続中の蓄電池駆動自動車(100)から電気を逆潮流させて受電する。
それでも事態が収まらなければ閉地域太陽光発電所(2)を発電停止する。
ステップ8:電圧V(t)が設定値V0よりもdV0以上高く電力供給過多であるから、交流買電受電を減らすためにステップ9に行く。
ステップ9:計量済電力計付交直変換器(5)を通って閉域直流電線(3)に流れ出る直流の電流ID(t) をdDだけ減じる。ID(t)がゼロになるまで続ける。ID(t)がゼロになったら、
太陽光発電削減設備(12)の削減割合ss(t)を増すためにステップ10に行く。
ステップ10:太陽光発電削減設備(12)に削減割合ss(t)をdSだけ増加して太陽光発電量を減らす指令を出す。削減可能な範囲で続ける。可能な限りの遮光等で太陽光発電を可能な限り削除しても供給電力が過多であるなら、事故の可能性があるとしてキーボード操作で閉地域太陽光発電所(2)を発電停止する。
FIG. 3 is an overview of the closed solar power management system of the present invention. In Japan, there are vast unused vacant lots such as unused industrial park land and reduced fallow fields. The area around this unused space is considered a closed area. A solar cell is installed in this closed area to generate DC power to form a closed solar power plant (2), and direct current is fed from the terminal (7) to the closed DC power line (3) that is stretched only in this closed area.
DC power stations (20), such as houses and factories in closed areas, purchase direct current via a PHS portable built-in metered DC wattmeter (21) with a built-in PHS mobile terminal, and the amount of power used is closed power from the PHS mobile terminal. It is transmitted to the management PHS portable built-in computer (10). The computer deducts the electricity bill from each person's bank account at the end of the month.
A battery-powered vehicle (100) such as an electric vehicle or a hybrid vehicle trades DC with a prepaid card or a watermelon card each time via a PHS portable control metered bidirectional DC power meter (31) incorporating a PHS portable terminal. In the case of reverse power flow from the battery-powered vehicle (100) to the closed DC power line (3), the balance of the prepaid card inserted into the PHS portable control metered bidirectional DC power meter (31) is increased.
A low voltage storage battery (6) set to a voltage lower than the voltage flowing through the closed DC power line (3) is laid on the closed DC power cable (3) to automatically relieve power supply and demand. If the voltage which flows into a closed region DC electric wire (3) falls, it will discharge to the closed region DC electric wire (3) side from a low voltage storage battery (6). Conversely, if the voltage flowing through the closed DC power line (3) increases, direct current flows from the closed DC power line (3) side to the low voltage storage battery (6) side and is stored.
A voltmeter (11) is laid on the closed DC wire (3) to constantly measure the voltage. In order to manage the power supply only in the closed area, the closed-area power management PHS portable computer (10) incorporating the PHS mobile reads the measured value from the voltmeter (11), and measures and monitors the DC power supply. Closed area power management The power supply in the closed area is managed by a calculation program built into the PHS portable computer (10).
If the computer determines that the DC power supply is insufficient, after reducing the amount of power generation imposed on the solar power generation reduction facility (12) installed in the closed solar power plant (2) and increasing the amount of solar power generation Then, AC power is purchased from the existing AC power line (1), and the DC supply amount is increased by the AC / DC converter (5) with a metered wattmeter to increase the power supply to the closed DC power line (3).
If the computer determines that the DC power supply is excessive, the AC power received from the existing AC power line (1) is reduced and the DC power supply is reduced by the AC / DC converter with metered power meter (5). The power generation amount reduction imposed on the photovoltaic power generation reduction facility (12) is further strengthened, the power generation amount of the closed solar power plant (2) is reduced, and the power supply to the closed DC power line (3) is reduced.
When the computer determines that the emergency DC supply power is insufficient, the computer receives reverse power flow from the battery-powered vehicle (100) via the PHS portable control metered DC bidirectional power meter (31).
As the photovoltaic power generation reduction facility (12), an electric light shielding curtain or a disconnection switch in a photovoltaic cell group connection circuit can be considered.
When there is a shortage of electric power, it can be replenished from the existing AC power line (1), so each house or factory does not have to install a storage battery individually, so the overall cost is reduced.
When there is a surplus in the amount of photovoltaic power generated, the photovoltaic cells may be shielded from light, or the switches in the photovoltaic cell group connection circuit may be disconnected.
In the spring and autumn seasons when demand is low, the amount of photovoltaic power generation can be reduced by inspection of some facilities. Solar energy is free and will not cause major damage. In addition, as for the electric power of the existing alternating current system electric wire (1), it is desirable that the thing from the nuclear power generation which does not discharge | release carbon dioxide gas is mainly from the meaning of this invention.
The capacity of the low voltage storage battery (6) is effective as a stabilized power source if there is a storage capacity of about 30 minutes of local power demand.
FIGS. 4-1 and FIGS. 4-2 are flowchart examples of calculation programs built in the closed power management PHS portable built-in computer (10).
Step 0: The initial setting value is read into the computer.
Built-in constant DC voltage V0.
Built-in allowable DC voltage error dV0. If the DC voltage is in the range of V0-dV0 to V0 + dV0, it is considered that the demand and supply of power are balanced.
The fluctuation range dS of the reduction ratio ss (t) of the photovoltaic power generation reduction facility (12) is incorporated.
It incorporates the fluctuation range dD of the DC current ID (t) flowing out to the closed DC wire (3) through the AC / DC converter with metered power meter (5) and the allowable value IDmax of the current ID (t).
Step 1: The electric state at time t is constantly read into the computer.
The DC voltage V (t) value flowing through the closed DC power line (3) is read from the voltmeter (11).
Receives power from the existing AC power line (1) and reads the DC current ID (t) value flowing through the AC / DC converter with metered wattmeter (5) and flowing into the closed DC power line (3).
The reduction ratio ss (t) value of the photovoltaic power generation reduction facility (12) is read.
Set up the electricity bill at the end of the month. The power consumption value is calculated from the previous month's value and current month's value of the PHS portable built-in DC power meter (21), and a procedure for transferring charges from the registered bank account to the bank account of this system is instructed. The PHS portable control metered DC bidirectional ammeter (31) starts operating when a prepaid card is inserted, and the power used is settled by the prepaid card.
Step 2: If the difference between the voltage V (t) at the time t and the set value V0 is within the error dV0, go to Step 3. If it is out of range, go to step 5.
Step 3: If there is no DC current ID (t) flowing through the AC / DC converter with metered wattmeter (5) and flowing into the closed DC wire (3), the current state is maintained and the procedure goes to Step 1. If there is ID (t), go to Step 4 to reduce the amount of power received and reduce the power purchase.
Step 4: A command to increase the amount of photovoltaic power generation by reducing the reduction rate ss (t) by dS to the photovoltaic power generation reduction facility (12) of the closed area photovoltaic power plant (2) and AC / DC conversion with a metered wattmeter Command to reduce the DC current ID (t) flowing out to the closed DC wire (3) through the device (5) by dD.
This operation is continued until ss (t) becomes zero and cannot be reduced.
Step 5: If the voltage V (t) at time t is lower than the set value V0 by dV0 or more, it is determined that the power supply is insufficient, and the process goes to Step 6. If the voltage V (t) is higher than the set value V0 by dV0 or more, it is determined that the power supply is excessive, and the process goes to Step 8.
Step 6: Since power supply is insufficient, the reduction rate ss (t) is reduced by dS to increase photovoltaic power generation. Continue until you can't reduce it. Even if there is no reduction, if the power supply is insufficient, go to Step 7 to buy AC and convert it to DC.
Step 7: The DC current ID (t) flowing out to the closed DC wire (3) through the AC / DC converter (5) with a metered wattmeter is increased by dD. If ID (t) exceeds the allowable value IDmax, the AC purchase increase is stopped. A command is sent to the PHS portable control metered direct current bidirectional power meter (31) by keyboard operation, and electricity is received from the connected battery-powered vehicle (100) by reverse power flow.
If the situation still does not stop, the closed area solar power plant (2) will be stopped.
Step 8: Since the voltage V (t) is higher than the set value V0 by dV0 or more, and the power supply is excessive, go to Step 9 to reduce AC power reception.
Step 9: The DC current ID (t) flowing out to the closed DC wire (3) through the AC / DC converter with metered power meter (5) is reduced by dD. Continue until ID (t) reaches zero. When ID (t) reaches zero,
Go to step 10 in order to increase the reduction ratio ss (t) of the solar power generation reduction facility (12).
Step 10: Issue a command to reduce the amount of photovoltaic power generation by increasing the reduction ratio ss (t) by dS to the photovoltaic power generation reduction facility (12). Continue as far as possible. If the power supply is excessive even if the solar power generation is deleted as much as possible by shading as much as possible, the closed area solar power plant (2) is stopped by keyboard operation because there is a possibility of an accident.

直流電源使用所(20)の住宅は、直流を電源として省エネルギー住宅でなければならい。
図5は直流電源使用所(20)の住宅例である。
太陽光電池(101)や交流変換器(103)や逆転防止逆潮流積算電力計(56)は、直流電源使用所(20)の住宅には設置しない。直流電力が閉域直流電線(3)から供給される。PHS携帯を内蔵した計量済の電力計であるPHS携帯内蔵計量済直流電力計(21)を通して住宅に直流が給電される。住宅の主要な場所に直流分電盤(112)から直流が直流電線(113)に給電され、各直流電源家庭内電気機器(121)は直流電線(113)から直流抵抗器(122)を通して適切な電流、電圧にして利用する。従来の交流電源家庭内電気機器(106)は、コンバータ(105)を通して交流を直流に変換していたがその必要はなく変換ロスが少なくなり節電になる。
情報のやり取りは通信光ケーブルを敷設しなくてもPHSを介して無線でできるため便利で安上がりである。テレビジョンさえもインターネットで見ることができる。
家庭でのエネルギー消費量が大きい給湯システムは、遠赤外線レーザ給湯システムにする。
水道の開閉栓(203)と調温レバー(206)機能を一体化した調温兼開閉栓(207)の調温操作と同時に微弱信号線(303)からの信号が遠赤外線レーザ発生装置(300)を作動させ、発生した遠赤外線レーザを光ケーブル(302)で上向蛇口首管(208)部に敷設したレーザ照射口(301)に導き遠赤外線レーザを上向蛇口首管(208)部の水に照射することにより当該水を昇温開始する。上向蛇口首管(208)は、水道蛇口(201)直前の水が通る管であって、水道蛇口(201)に向かって上向きに傾けることにより、送水が停止している時には水はこの部分に滞留する。
水道蛇口(201)の近辺に人体感知センサを敷設しておくのも有効である。人が水道蛇口(201)の前に立つと遠赤外線レーザ発生装置(300)を作動させ上向蛇口首管(208)部の水を昇温させておくことになる。
調温兼開閉栓(207)の調温操作(例えば、レバーを上に引き上げることにより数秒間だけ遠赤外線レーザ発生装置(300)作動。それを過ぎると自動的に停止。)から若干の時間遅れをもって調温兼開閉栓(207)の送水操作(例えば、レバーを右に回すと遠赤外線レーザ発生装置(300)作動連続信号発進。レバーを左に回すと冷水のみ。)によって送水と遠赤外線レーザ発生装置(300)作動とを開始する。水道蛇口(201)から短時間で温水が得られる。
調温兼開閉栓(207)閉と同時に微弱信号線(303)からの信号で遠赤外線レーザ発生装置(300)を停止させる。上向蛇口首管(208)部の温水はそこに留まっているからしばらくの間は温水のままであり、次に使用する時は若干温もりを残している。
かくて、温水量は必要最小限であるため省エネルギーになる。更に、直流電気を赤外線レーザに変換して蛇口に送るため感電を防ぐことができる。
遠赤外線レーザ発生装置(300)を作動させて発生した遠赤外線レーザを光ケーブル(302)で浴室浴槽内に導き浴槽内の湯を追い炊きする遠赤外線レーザ追い炊きシステムである。水道量を増やさずに浴槽水温度を上昇させることができるため、水資源の節約と節電にもなる。浴槽水温度を上昇させるために高温湯を注ぎ足す方式では、上面まで湯が張られている浴槽内の低温の湯を捨てることになる。無駄がでてしまう。

遠赤外線レーザ発生装置(300)は屋外に設置してもよい。
上記本発明の遠赤外線レーザ給湯システムは、交流電灯線を電源としてもインバータ装置により有効に作動する。
直流電源使用所(20)の工場も、直流を電源とした工場でなければならい。
図6は直流電源使用所(20)の工場負荷例である。
閉域直流電線(3)から供給された直流は、従来のインバータ装置からコンバータ部を削除したインバータ部装置で、モータおよび負荷機械に必要な電圧・周波数に変換される。従来の商用交流から直流に変換する部分が削除されたため装置が簡単になり安くなるだけではなく、交流から直流に変換する際に生じるロスがなくなり節電効果が得られる。
The house of the DC power source use place (20) must be an energy-saving house using DC as a power source.
FIG. 5 shows an example of a residence at a DC power supply station (20).
The solar battery (101), the AC converter (103), and the reverse flow prevention reverse power flow integrating wattmeter (56) are not installed in the house of the DC power source use place (20). DC power is supplied from the closed DC wire (3). DC power is supplied to the house through a PHS portable built-in metered DC wattmeter (21) which is a metered wattmeter with a built-in PHS portable. Direct current is fed from the direct current distribution board (112) to the direct current electric wires (113) to the main places of the house, and each direct current power source household electric appliance (121) is appropriately connected from the direct current wires (113) through the direct current resistors (122). Use it with the correct current and voltage. The conventional AC power source household electric appliance (106) converts AC to DC through the converter (105), but this is not necessary and conversion loss is reduced, thus saving power.
Information can be exchanged wirelessly via PHS without laying a communication optical cable, which is convenient and inexpensive. Even television can be seen on the Internet.
A hot water supply system that consumes a large amount of energy at home is a far infrared laser hot water supply system.
The signal from the weak signal line (303) is simultaneously transmitted to the far-infrared laser generator (300) at the same time as the temperature control operation of the temperature control and switch (207) integrating the functions of the water tap (203) and the temperature control lever (206). ) And the generated far-infrared laser is guided by an optical cable (302) to a laser irradiation port (301) laid on the upward faucet neck tube (208), and the far-infrared laser is guided to the upward faucet neck tube (208) portion. The temperature of the water is increased by irradiating the water. The upward faucet neck pipe (208) is a pipe through which water immediately before the water tap (201) passes, and when the water supply is stopped by tilting upward toward the water tap (201), Stays on.
It is also effective to lay a human body sensor in the vicinity of the water tap (201). When a person stands in front of the water faucet (201), the far-infrared laser generator (300) is activated to raise the temperature of the water in the upward faucet neck tube (208).
Slightly delayed from the temperature control operation of the temperature control / opening / closing plug (207) (for example, the far-infrared laser generator (300) is activated for a few seconds by pulling up the lever, and then automatically stops after that) Water supply and far-infrared laser by the temperature control / opening / closing plug (207) (for example, when the lever is turned to the right, the far infrared laser generator (300) operation continuous signal starts. When the lever is turned to the left, only cold water is used). The generator (300) is activated. Hot water can be obtained from the water tap (201) in a short time.
The far-infrared laser generator (300) is stopped by a signal from the weak signal line (303) at the same time as the temperature control and opening / closing plug (207) is closed. The hot water in the upward faucet neck (208) remains there for a while and remains warm for the next use.
Thus, since the amount of hot water is the minimum necessary, energy is saved. Furthermore, since direct current electricity is converted into an infrared laser and sent to the faucet, an electric shock can be prevented.
This is a far-infrared laser cooking system in which a far-infrared laser generated by operating a far-infrared laser generator (300) is guided into a bath tub by an optical cable (302) to cook hot water in the bath. Since the bath water temperature can be raised without increasing the amount of water, water resources can be saved and power can be saved. In the method of adding hot water in order to raise the bath water temperature, the hot water in the bathtub where hot water is stretched up to the upper surface is discarded. It will be useless.

The far-infrared laser generator (300) may be installed outdoors.
The far-infrared laser hot water supply system of the present invention operates effectively by an inverter device even when an AC lamp line is used as a power source.
The factory of the DC power source use place (20) must also be a factory using DC as a power source.
FIG. 6 shows an example of a factory load at the DC power supply station (20).
The direct current supplied from the closed DC power line (3) is converted into the voltage and frequency necessary for the motor and the load machine by the inverter unit device in which the converter unit is omitted from the conventional inverter device. Since the conventional part for converting from commercial AC to DC is eliminated, the apparatus is not only simplified and cheaper, but also the loss caused when converting from AC to DC is eliminated and a power saving effect is obtained.

図7は本発明の直流太陽発電システムの概観図である。図中実線は直流を示し、点線は交流を示す。太陽光電池(101)からの直流を接続箱(102)に集中させ電圧を高めた後、接続中の車用取替蓄電池(402)を通して住宅内の直流分電盤(112)に引き込む。
一方、逆転防止需要量積算電力計(57)経由で住宅内に引き込み買電受電した商用交流を交直変換器(401)で直流に変換し住宅内の直流分電盤(112)に引き込む。商用交流を交直変換器(401)で直流に変換した直流の電圧は、車用取替蓄電池(402)定格電圧よりも低くする。直流分電盤(112)から伸びて住宅内主要箇所に引き回された直流電線(113)経由の直流を直流抵抗器(122)で適切な電流と電圧に調節し直流電源家庭内電気機器(121)を作動させることを特徴とした直流太陽発電システム。
蓄電池駆動自動車(100)は複数の車用取替蓄電池(402)を搭載し、蓄電池駆動自動車(100)走行で放電した車用取替蓄電池(402)の1部を予め充電しておいた予備の車用取替蓄電池(402)と交換する。例えば、3個の車用取替蓄電池(402)を搭載して走る蓄電池駆動自動車(100)が1日走行したら、翌日は1個の使用済車用取替蓄電池(402)を予備の充電済の車用取替蓄電池(402)と交換する。3バッチ交換で蓄電池駆動自動車(100)を走行する。蓄電池駆動自動車(100)の充電時間を短くできる。
太陽光電池(101)からの直流を接続箱(102)に集中させた電圧は車用取替蓄電池(402)の定格電圧よりも高く、商用交流から交直変換器(401)で直流に変換した直流電圧は車用取替蓄電池(402)の定格電圧よりも低くする。直流分電盤(112)に電力供給不足が生じた時は接続中の車用取替蓄電池(402)から放電される。直流電源家庭内電気機器(121)での電力消費が多くて接続中の車用取替蓄電池(402)が十分放電して定格電圧を下回ると、商用交流から交直変換器(401)で直流に変換した直流で車用取替蓄電池(402)は充電される。太陽光電池(101)による電力供給過剰は接続中の車用取替蓄電池(402)に蓄電される。
住宅内に引き込み買電受電した商用交流電力は逆転防止需要量積算電力計(57)で計測され今まで通りの販売価格で家庭に売られる。
太陽電池(101)から直流分電盤(112)を通って直流電源家庭内電気機器(105)に消費された電力は無料である。
FIG. 7 is a schematic view of a DC solar power generation system of the present invention. In the figure, the solid line indicates direct current, and the dotted line indicates alternating current. The direct current from the solar battery (101) is concentrated on the junction box (102) to increase the voltage, and then drawn into the DC distribution board (112) in the house through the connected replacement battery for the vehicle (402).
On the other hand, commercial AC that is drawn into the house via the reverse rotation prevention demand integrating wattmeter (57) and purchased and received is converted into DC by the AC / DC converter (401) and drawn into the DC distribution board (112) in the house. The DC voltage obtained by converting commercial AC into DC by the AC / DC converter (401) is lower than the rated voltage of the replacement battery for vehicles (402). The direct current via the direct current wire (113) extended from the direct current distribution board (112) and routed to the main part of the house is adjusted to an appropriate current and voltage by the direct current resistor (122), and the direct current power source household electrical equipment ( 121) operating a direct current solar power generation system.
The battery-powered automobile (100) is equipped with a plurality of vehicle replacement storage batteries (402), and a spare part of the vehicle replacement storage battery (402) discharged during the storage battery-driven automobile (100) travel has been charged in advance. To replace the vehicle replacement storage battery (402). For example, if a battery-powered vehicle (100) that runs with three replacement batteries (402) for a vehicle travels for one day, the replacement battery (402) for one used vehicle is charged as a spare on the next day. To replace the vehicle replacement storage battery (402). A battery-powered vehicle (100) is driven in three batches. The charging time of the battery-powered automobile (100) can be shortened.
The voltage obtained by concentrating the direct current from the solar battery (101) in the junction box (102) is higher than the rated voltage of the replacement battery for a vehicle (402), and the direct current is converted from direct current to direct current by the AC / DC converter (401). The voltage is set lower than the rated voltage of the replacement battery for vehicles (402). When a shortage of power supply occurs in the DC distribution board (112), the battery replacement storage battery (402) being connected is discharged. When the power consumption in the DC power supply household appliance (121) is large and the connected replacement battery (402) for the car is sufficiently discharged and falls below the rated voltage, the commercial AC is converted to DC by the AC / DC converter (401). The replacement battery for vehicles (402) is charged with the converted direct current. The excessive power supply by the solar battery (101) is stored in the connected replacement battery for a vehicle (402).
The commercial AC power that is drawn into the house and purchased and received is measured by the reverse-rotation-preventing demand integrating power meter (57) and sold to the home at the same selling price as before.
The electric power consumed from the solar cell (101) through the DC distribution board (112) to the DC power supply household electric appliance (105) is free.

直流工業団地に直流利用工場や直流利用通信事業会社を先に誘致し、次に家族や商店の直流家電使用住宅を建設することになる。
健常者や若者の満足を維持しつつ、非健常者や高齢者の福祉充実には長期緩やかなバブルが必要である。微弱直流利用によるITバブルは終わったが、本発明により新たに強電直流利用による直流動力バブルを創出するものと思われる。
価格安定に乏しい石油を利用した交流発電と交流家電社会は飽和しつつある。工場から既存の交流原動機をスクラップし新規直流原動機導入による生産効率化が望める。
化石燃料も、これによる発電設備も余っている今が、太陽光発電直流社会へ転換するチャンスである。太陽光設備設置費も安く、初期投資費用の減価償却が進むまでは、今の安い化石燃料発電で補える。
直流社会への踏み出しにより、交流関連設備(発電機、原動機、家電製品、並びに交流関連設備製造機)を破棄し、直流関連設備導入開始により新たな需要創出となる。
不安定な表面エネルギーである太陽光発電は天候不順の危険性を免れないから、炭酸ガスを発生させない原子力発電のバックアップを必要とする。原子力発電の負荷平準化は同時に達成できる。
休止火力発電所や余剰燃料タンクの屋上・敷地内を地域太陽光発電所とすればよい。休止火力発電所や余剰燃料タンクは費用を掛けてまで撤廃する必要はない。何らかの必要が生じた時に再開できる余地は残しておく。
燃料電池使用は安いが、自宅に燃料タンクを常設することになるから、大災害に怖いし、炭酸ガスを多少なりとも出す。その点、太陽光は安全性が高い。
原発建設反対の強かった所は今後の原発運営に支障が出る(原発反対すれば太陽光発電が来ると誤解される)から避けるであろうが、特段の地元対策費無しで広大な原発予定地に太陽光発電装置を設置することはありうる。原発に比べて地元対策費無しの太陽光発電(電力会社には地球温暖化抑制補助金が下りる)への地元団体の対応を早く知るためにも、太陽光発電は早く大量に導入されるだろう。
自動販売機のように、都会の隙間に太陽光発電機を設置するビジネスが登場する。
The company will first invite DC factories and telecommunications companies to the DC Industrial Park, and then build DC homes for families and shops.
While maintaining the satisfaction of healthy people and youth, a gradual bubble is necessary for the enhancement of welfare for non-healthy people and the elderly. Although the IT bubble due to the use of weak DC is over, it is thought that the present invention will newly create a DC power bubble due to the use of strong DC.
AC power generation using petroleum with poor price stability and AC home appliance society are becoming saturated. Scraping the existing AC prime mover from the factory and introducing a new direct current prime mover can improve production efficiency.
Now that fossil fuels and power generation facilities are available, there is an opportunity to switch to a solar power generation DC society. The cost of installing solar facilities is low, and until the initial investment cost is depreciated, it can be compensated with the current cheap fossil fuel power generation.
By stepping into the DC society, AC-related equipment (generators, prime movers, home appliances, and AC-related equipment manufacturing machines) will be discarded, and new demand will be created by the introduction of DC-related equipment.
Solar power generation, which is an unstable surface energy, requires the backup of nuclear power generation that does not generate carbon dioxide gas, because it cannot escape the risk of bad weather. Nuclear power generation load leveling can be achieved simultaneously.
The rooftop / site of the rest thermal power plant and surplus fuel tank may be a regional solar power plant. The dormant thermal power plant and surplus fuel tank do not need to be removed until they are expensive. Leave room to resume when something is needed.
Although it is cheap to use, the fuel tank is permanently installed at home, so it is afraid of a catastrophe and emits some carbon dioxide. In that respect, sunlight is highly safe.
The place that was strong against the construction of the nuclear power plant will be avoided because it will interfere with the future operation of the nuclear power plant (it will be misunderstood that solar power generation will come if the nuclear power plant is opposed to the nuclear power plant). It is possible to install a photovoltaic power generator in Compared to nuclear power plants, solar power generation will be introduced quickly and in large quantities so that local organizations can quickly respond to solar power generation without local countermeasure costs (electricity companies receive subsidies for controlling global warming). Let's go.
Like vending machines, there will be a business that installs solar power generators in urban gaps.

現行の太陽発電システムの概観模式図。Schematic diagram of the current solar power generation system. 商用交流電源を動力に利用している工場等における負荷概観図。An overview of loads in factories that use commercial AC power as power. 本発明の閉域太陽光発電管理システムの概観図。1 is a schematic view of a closed solar power generation management system of the present invention. 閉域電力管理PHS携帯内蔵コンピュータ(10)に内蔵する計算プログラムのフローチャート例。The example of a flowchart of the calculation program incorporated in a closed region power management PHS portable computer (10). 閉域電力管理PHS携帯内蔵コンピュータ(10)に内蔵する計算プログラムのフローチャート例続き。Example of the flowchart of the calculation program built in the closed power management PHS portable computer (10). 直流電源使用所(20)の住宅例。An example of a residence at a DC power station (20). 直流電源使用所(20)の工場負荷例。Example of factory load at a DC power supply station (20). 直流太陽発電システムの概観図。An overview of a DC solar power generation system.

1は既存交流系統電線。
2は閉域太陽光発電所。
3は閉域直流電線。
4は交流引込線。
5は計量済電力計付交直変換器。
6は低電圧蓄電池。
7は端子。
10は閉域電力管理PHS携帯内蔵コンピュータ。
11は電圧計。
12は太陽光発電削減設備。
20は直流電源使用所。
21はPHS携帯内蔵計量済直流電力計。
31はPHS携帯制御計量済直流双方向電力計。
56は逆転防止逆潮流積算電力計。
57は逆転防止需要量積算電力計。
100は蓄電池駆動自動車。
101は太陽光電池。
102は接続箱。
103は交流変換器。
104は分電盤。
105はコンバータ。
106は交流電源家庭内電気機器。
112は演算直流分電盤。
113は直流電線。
121は直流電源家庭内電気機器。
122は直流抵抗器。
201は水道蛇口。
202は水平蛇口首管。
203は開閉栓。
204は電気給湯器。
205は給湯管。
206は調温レバー。
207は調温兼開閉栓。
208は上向蛇口首管。
300は遠赤外線レーザ発生装置。
301はレーザ照射口。
302は光ケーブル。
303は微弱信号線。
401は交直変換器。
402は車用取替蓄電池。
1 is an existing AC system electric wire.
2 is a closed solar power plant.
3 is a closed-area DC electric wire.
4 is an AC lead-in wire.
5 is an AC / DC converter with a metered wattmeter.
6 is a low voltage storage battery.
7 is a terminal.
10 is a closed power management PHS portable built-in computer.
11 is a voltmeter.
12 is a solar power generation reduction facility.
Reference numeral 20 is a DC power supply place.
21 is a PDC portable built-in metered DC power meter.
31 is a PHS portable control metered DC bidirectional power meter.
56 is a reverse flow preventing watt-hour meter that prevents reverse rotation.
Reference numeral 57 denotes a reverse rotation-preventing demand integrated power meter.
100 is a battery-powered vehicle.
101 is a solar cell.
102 is a connection box.
103 is an AC converter.
104 is a distribution board.
105 is a converter.
Reference numeral 106 denotes an AC power supply household electrical device.
112 is an arithmetic DC distribution board.
113 is a DC electric wire.
121 is a DC power supply household electrical device.
122 is a DC resistor.
201 is a water tap.
202 is a horizontal faucet neck.
203 is an opening / closing stopper.
204 is an electric water heater.
205 is a hot water supply pipe.
206 is a temperature control lever.
207 is a temperature control and open / close stopper.
208 is an upward faucet neck.
300 is a far infrared laser generator.
301 is a laser irradiation port.
302 is an optical cable.
303 is a weak signal line.
401 is an AC / DC converter.
Reference numeral 402 denotes a vehicle replacement storage battery.

Claims (5)

閉域太陽光発電所(2)で発電した直流を閉地域の直流電源使用所(20)または蓄電池駆動自動車(100)に閉域直流電線(3)で供給し、閉域直流電線(3)に敷設した低電圧蓄電池(6)で電力需給を自動的に緩和し、閉域直流電線(3)に敷設した電圧計(11)から送られた電圧を計測監視し、閉域電力管理PHS携帯内蔵コンピュータ(10)に内蔵する計算プログラムで、当該コンピュータが直流供給電力不足を判断した場合は閉域太陽光発電所(2)に敷設せる太陽光発電削減設備(12)に課していた発電量削減を減らし太陽光発電量を増やした後既存交流系統電線(1)から交流を買電受電し計量済電力計付交直変換器(5)により直流の供給量を増加させ閉域直流電線(3)への給電を増加し、当該コンピュータが直流供給電力過剰を判断した場合は既存交流系統電線(1)からの交流買電受電を減らし計量済電力計付交直変換器(5)により直流の閉域直流電線(3)への給電量を減らした後太陽光発電削減設備(12)に課していた発電量削減を更に強め閉域太陽光発電所(2)の発電電力量を減少させ閉域直流電線(3)への給電を減少し、当該コンピュータが緊急直流供給電力不足を判断した場合はPHS携帯制御計量済直流双方向電力計(31)を介して蓄電池駆動自動車(100)から逆潮流受電することにより、閉地域の電力供給を管理することを特徴とする閉域太陽光発電管理システム。   The direct current generated by the closed solar power plant (2) is supplied to the DC power station (20) or battery powered vehicle (100) in the closed region using the closed DC wire (3) and laid on the closed DC wire (3). Power supply and demand is automatically relaxed with a low-voltage storage battery (6), the voltage sent from the voltmeter (11) laid on the closed DC cable (3) is measured and monitored, and the closed-area power management PHS portable computer (10) If the computer determines that the DC power supply is insufficient, the power generation reduction imposed on the photovoltaic power generation reduction facility (12) installed in the closed solar power plant (2) is reduced. After increasing the amount of power generation, AC power is purchased from the existing AC power line (1), and the DC supply is increased by the AC / DC converter with metered power meter (5) to increase the power supply to the closed DC cable (3) The computer When it is judged that the power supply is excessive, AC power received from the existing AC power line (1) is reduced, and the AC / DC converter with metered power meter (5) is used to reduce the amount of power supplied to the DC closed DC cable (3). After further strengthening the power generation reduction imposed on the post-solar power generation reduction facility (12), the power generation amount of the closed solar power plant (2) is reduced and the power supply to the closed DC power line (3) is reduced. If it determines that the emergency DC supply power is insufficient, it will manage the power supply in the closed area by receiving reverse power flow from the battery-powered vehicle (100) via the PHS portable control metered DC bidirectional power meter (31) A closed solar power management system characterized by 水道の開閉栓(203)と調温レバー(206)機能を一体化した調温兼開閉栓(207)の調温操作と同時に微弱信号線(303)からの信号で遠赤外線レーザ発生装置(300)を作動させて発生した遠赤外線レーザを光ケーブル(302)で上向蛇口首管(208)部に敷設したレーザ照射口(301)に導き、遠赤外線レーザを上向蛇口首管(208)部の水に照射することにより当該水の昇温を開始し、調温兼開閉栓(207)の調温操作から若干の時間遅れをもって調温兼開閉栓(207)の送水操作によって送水と遠赤外線レーザ発生装置(300)の連続作動を開始し、調温兼開閉栓(207)閉と同時に微弱信号線(303)からの信号で遠赤外線レーザ発生装置(300)を停止させることを特徴とする遠赤外線レーザ給湯システム。 The far-infrared laser generator (300) receives a signal from the weak signal line (303) simultaneously with the temperature control operation of the temperature control / open / close switch (207) which integrates the functions of the water tap (203) and the temperature control lever (206). ) Is guided to a laser irradiation port (301) laid on the upward faucet neck tube (208) by an optical cable (302), and the far infrared laser is guided to the upward faucet neck tube (208) portion. The temperature of the water starts to be increased by irradiating the water of the water, and the water supply and far infrared rays are transmitted by the water supply operation of the temperature control / opening / closing plug (207) with a slight delay from the temperature adjustment operation of the temperature control / opening / closing plug (207). The continuous operation of the laser generator (300) is started, and the far-infrared laser generator (300) is stopped by a signal from the weak signal line (303) at the same time as the temperature control and open / close plug (207) is closed. Far-infrared laser Hot water system. 遠赤外線レーザ発生装置(300)を作動させて発生した遠赤外線レーザを光ケーブル(302)で浴室浴槽内に導き浴槽内の湯を追い炊きすることを特徴とする遠赤外線レーザ追い炊きシステム。 A far-infrared laser reheating system characterized in that a far-infrared laser generated by operating a far-infrared laser generating device (300) is guided to a bath tub by an optical cable (302) to reheat hot water in the tub. 太陽光電池(101)からの直流を接続箱(102)に集中させ電圧を高めて車用取替蓄電池(402)を通した直流と、逆転防止需要量積算電力計(57)または現行需要量積算電力計経由で住宅内に引き込みし商用交流を交直変換器(401)で車用取替蓄電池(402)定格電圧よりも低い電圧の直流に変換した直流とを住宅内の直流分電盤(112)に集め、直流分電盤(112)から伸びて住宅内主要箇所に引き回された直流電線(113)から直流抵抗器(122)で適切な電流と電圧に調節し直流電源家庭内電気機器(121)を作動させることを特徴とした直流太陽発電システム。 The direct current from the solar battery (101) is concentrated in the junction box (102) to increase the voltage and pass through the vehicle replacement storage battery (402), and the reverse-prevention demand integrated power meter (57) or the current demand integrated A DC power distribution board (112) is connected to the DC distribution board (112) which is drawn into the house via the wattmeter and converted into a direct current having a voltage lower than the rated voltage by the AC / DC converter (401). ), And from the DC power distribution board (112) and extended to the main location in the house, the DC wire (113) is adjusted to an appropriate current and voltage by the DC resistor (122), and the DC power supply household electrical equipment A direct-current solar power generation system characterized by operating (121). 3個の車用取替蓄電池(402)を駆動源とし、3バッチ交換で車用取替蓄電池(402)を交換し、充電用として予備に車用取替蓄電池(402)を持つことを特徴とする3バッチ交換蓄電池駆動自動車(100)。 It is characterized by having three vehicle replacement storage batteries (402) as a drive source, exchanging the vehicle replacement storage battery (402) by three batch replacements, and having a vehicle replacement storage battery (402) as a spare for charging. A three-batch replacement battery powered car (100).
JP2009091852A 2009-04-06 2009-04-06 DC electrical management system and far infrared laser hot water supply system Expired - Fee Related JP5590592B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP2009091852A JP5590592B2 (en) 2009-04-06 2009-04-06 DC electrical management system and far infrared laser hot water supply system

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP2009091852A JP5590592B2 (en) 2009-04-06 2009-04-06 DC electrical management system and far infrared laser hot water supply system

Publications (3)

Publication Number Publication Date
JP2010246257A true JP2010246257A (en) 2010-10-28
JP2010246257A5 JP2010246257A5 (en) 2012-04-26
JP5590592B2 JP5590592B2 (en) 2014-09-17

Family

ID=43098676

Family Applications (1)

Application Number Title Priority Date Filing Date
JP2009091852A Expired - Fee Related JP5590592B2 (en) 2009-04-06 2009-04-06 DC electrical management system and far infrared laser hot water supply system

Country Status (1)

Country Link
JP (1) JP5590592B2 (en)

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP4918624B1 (en) * 2011-09-29 2012-04-18 エネシティ株式会社 Power information management apparatus and power information management program
US9366455B1 (en) 2015-07-14 2016-06-14 Laser Heating Advanced Technologies, Llc System and method for indirectly heating a liquid with a laser beam immersed within the liquid

Citations (10)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH01159563A (en) * 1987-12-16 1989-06-22 Natl House Ind Co Ltd Hot water supply device
JPH0675235U (en) * 1993-04-02 1994-10-25 ウシオ電機株式会社 Kitchen unit
JP2001057711A (en) * 1999-01-25 2001-02-27 Zip Charge:Kk Energy supply system for electric vehicle, battery for electric vehicle, battery charger for the electric vehicle, battery vending apparatus and battery managing system for the electric vehicle
JP2002102305A (en) * 2000-09-29 2002-04-09 Toto Ltd Bathtub system
JP2003274554A (en) * 2002-03-19 2003-09-26 Hitachi Ltd Power supply method
JP2003339118A (en) * 2002-05-22 2003-11-28 My Way Giken Kk Distributed power supply system
JP2004271483A (en) * 2003-03-12 2004-09-30 Toshiba Corp Core of boiling water reactor and operation method
JP2006129585A (en) * 2004-10-27 2006-05-18 Hitachi Ltd Controller for dc distribution system, and transformer controller
JP2006288364A (en) * 2005-04-08 2006-10-26 Takahito Kawamoto Movable watering system equipped pump with low voltage (dc12v) brushless three-phase motor utilizing environmentally friendly natural energy, using low voltage (dc12v) power source while charged, and driven with three-phase inverter (having timer, remote control system and the like)
JP2008245416A (en) * 2007-03-27 2008-10-09 Osaka Gas Co Ltd Vehicle and power system

Patent Citations (10)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH01159563A (en) * 1987-12-16 1989-06-22 Natl House Ind Co Ltd Hot water supply device
JPH0675235U (en) * 1993-04-02 1994-10-25 ウシオ電機株式会社 Kitchen unit
JP2001057711A (en) * 1999-01-25 2001-02-27 Zip Charge:Kk Energy supply system for electric vehicle, battery for electric vehicle, battery charger for the electric vehicle, battery vending apparatus and battery managing system for the electric vehicle
JP2002102305A (en) * 2000-09-29 2002-04-09 Toto Ltd Bathtub system
JP2003274554A (en) * 2002-03-19 2003-09-26 Hitachi Ltd Power supply method
JP2003339118A (en) * 2002-05-22 2003-11-28 My Way Giken Kk Distributed power supply system
JP2004271483A (en) * 2003-03-12 2004-09-30 Toshiba Corp Core of boiling water reactor and operation method
JP2006129585A (en) * 2004-10-27 2006-05-18 Hitachi Ltd Controller for dc distribution system, and transformer controller
JP2006288364A (en) * 2005-04-08 2006-10-26 Takahito Kawamoto Movable watering system equipped pump with low voltage (dc12v) brushless three-phase motor utilizing environmentally friendly natural energy, using low voltage (dc12v) power source while charged, and driven with three-phase inverter (having timer, remote control system and the like)
JP2008245416A (en) * 2007-03-27 2008-10-09 Osaka Gas Co Ltd Vehicle and power system

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP4918624B1 (en) * 2011-09-29 2012-04-18 エネシティ株式会社 Power information management apparatus and power information management program
US9366455B1 (en) 2015-07-14 2016-06-14 Laser Heating Advanced Technologies, Llc System and method for indirectly heating a liquid with a laser beam immersed within the liquid

Also Published As

Publication number Publication date
JP5590592B2 (en) 2014-09-17

Similar Documents

Publication Publication Date Title
Wirth et al. Recent facts about photovoltaics in Germany
CN105556831B8 (en) System, method and apparatus for energy production load compensation
AU2019201918B2 (en) Generation load control
Gont Design of a standalone photovoltaic system for a typical household around Dessie City-Ethiopia
Oluwafemi et al. Design and construction of a 0.5 kW solar tree for powering farm settlements
Hirose et al. Study on field demonstration of multiple power quality levels system in Sendai
Charalambous et al. Hybrid AC-DC distribution system for building integrated photovoltaics and energy storage solutions for heating-cooling purposes. A case study of a historic building in Cyprus
WO2022136846A1 (en) Electrical system for a residential site
JP5590592B2 (en) DC electrical management system and far infrared laser hot water supply system
JP2003274554A (en) Power supply method
GB2488800A (en) Fluid heating system having an immersion heater that may be powered by a renewable energy source
Ni et al. Featured town energy internet design based on the flexible demand response resources
CN206432945U (en) A kind of family expenses photovoltaic generating system
Bignucolo et al. Interconnecting neighbors’ buildings: advantages of energy districts realized through private DC lines
Silva et al. Multifunction controller and DC revenue meter for nanogrid
Li et al. Energy flexibility in grid-interactive and net/nearly zero energy buildings
Osseily Design and Analysis of a Net Zero Electrical Energy Building in Beirut-Lebanon
Liu et al. Wind-Solar-Storage Linkage Allocation Algorithm for Carbon Neutral Energy Internet
Perumal Smart Energy Home Management Using Hybrid system
Clapes Torres Viability and design analysis of an energy self-sufficient single-family house disconnected from the electrical grid based on renewable energies
Alonso et al. Contribution to the knowledge of a microgrid. Smart Campus
CN113300406A (en) Unidirectional distributed grid-connected photovoltaic power generation system and control method thereof
Xiao et al. Performance analysis of photovoltaic residual electricity thermal conversion and storage system in solar energy enrichment areas
Zainuddin et al. Feasibility Study of Electric Photovoltaic Solar Panel Set Aplication
Kelman Off-grid living: Towards personal self-sufficiency

Legal Events

Date Code Title Description
A521 Written amendment

Free format text: JAPANESE INTERMEDIATE CODE: A523

Effective date: 20120308

A621 Written request for application examination

Free format text: JAPANESE INTERMEDIATE CODE: A621

Effective date: 20120308

A131 Notification of reasons for refusal

Free format text: JAPANESE INTERMEDIATE CODE: A131

Effective date: 20131008

A521 Written amendment

Free format text: JAPANESE INTERMEDIATE CODE: A523

Effective date: 20131028

A131 Notification of reasons for refusal

Free format text: JAPANESE INTERMEDIATE CODE: A131

Effective date: 20140513

A521 Written amendment

Free format text: JAPANESE INTERMEDIATE CODE: A523

Effective date: 20140515

TRDD Decision of grant or rejection written
A01 Written decision to grant a patent or to grant a registration (utility model)

Free format text: JAPANESE INTERMEDIATE CODE: A01

Effective date: 20140722

A61 First payment of annual fees (during grant procedure)

Free format text: JAPANESE INTERMEDIATE CODE: A61

Effective date: 20140723

Free format text: JAPANESE INTERMEDIATE CODE: A61

Effective date: 20140724

R150 Certificate of patent or registration of utility model

Ref document number: 5590592

Country of ref document: JP

Free format text: JAPANESE INTERMEDIATE CODE: R150

LAPS Cancellation because of no payment of annual fees