JPH0246879B2 - - Google Patents
Info
- Publication number
- JPH0246879B2 JPH0246879B2 JP60262532A JP26253285A JPH0246879B2 JP H0246879 B2 JPH0246879 B2 JP H0246879B2 JP 60262532 A JP60262532 A JP 60262532A JP 26253285 A JP26253285 A JP 26253285A JP H0246879 B2 JPH0246879 B2 JP H0246879B2
- Authority
- JP
- Japan
- Prior art keywords
- water
- resistor
- radiator
- electrode
- spray pipe
- 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.)
- Expired - Lifetime
Links
Classifications
-
- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F28—HEAT EXCHANGE IN GENERAL
- F28D—HEAT-EXCHANGE APPARATUS, NOT PROVIDED FOR IN ANOTHER SUBCLASS, IN WHICH THE HEAT-EXCHANGE MEDIA DO NOT COME INTO DIRECT CONTACT
- F28D5/00—Heat-exchange apparatus having stationary conduit assemblies for one heat-exchange medium only, the media being in contact with different sides of the conduit wall, using the cooling effect of natural or forced evaporation
Landscapes
- Engineering & Computer Science (AREA)
- Physics & Mathematics (AREA)
- Thermal Sciences (AREA)
- Mechanical Engineering (AREA)
- General Engineering & Computer Science (AREA)
- Heat-Exchange Devices With Radiators And Conduit Assemblies (AREA)
- Adjustable Resistors (AREA)
Description
【発明の詳細な説明】
［産業上の利用分野］
本発明は発電機やインバーター等の電源出力特
性の測定試験等に使用される負荷装置において、
水を電極水として利用する水抵抗器の温熱排水を
冷却するのに供せられる開放型循環温熱電極水冷
却処理装置に関する。[Detailed Description of the Invention] [Industrial Application Field] The present invention relates to a load device used for measuring and testing the power output characteristics of generators, inverters, etc.
The present invention relates to an open circulation thermal electrode water cooling treatment device that is used to cool thermal waste water of a water resistor that uses water as electrode water.
［従来の技術］
この種温熱水は従来においてはそのまま冷却せ
ずに排出排気したり、熱交換器を通す等していた
ため前者の場合は自然環境、生活環境に悪影響を
及ぼし公害問題を起生したり省資源上問題があつ
た。例えば発電機の出力特性の測定試験に供され
る負荷装置として従来より用いられる水抵抗器で
あるが、この水抵抗器αは第５図に示すように３
相の各高圧ケーブルａを夫々接続した３つの電極
板ｂよりなり縦横３ｍ、高さ２ｍ程の水槽ｃに架
台ｄを設置して吊り下げ、水中への挿入量を加減
して負荷を調整するようにして使用するもので、
水槽ｃ中の水を抵抗として発電機の出力電力を消
費するのである。この電力消費により次第に水温
が上昇し水の導電率が大きくなるため、このまま
では水の絶縁破壊が起こりアークが発生して危険
である。そこで、これを防ぐため水槽ｃには第５
図矢印で示すように、常に河川、消火栓あるいは
貯水槽より冷水を供給する一方、温まつた水を排
水して水槽ｃ内の水温を一定以下に保つてやるこ
とが不可欠である。このため水抵抗器αの使用に
あたつては、まず大量の水が必要である。[Conventional technology] In the past, this kind of hot water was discharged without being cooled or passed through a heat exchanger, so in the former case, it had a negative impact on the natural and living environment and caused pollution problems. There were problems with resource conservation. For example, a water resistor has been conventionally used as a load device for testing the output characteristics of a generator.
A frame d consisting of three electrode plates b connected to high-voltage cables a of each phase is installed and suspended in a water tank c measuring approximately 3 m in length and width and 2 m in height, and the load is adjusted by adjusting the amount inserted into the water. It is used as follows,
The output power of the generator is consumed by using the water in tank c as a resistance. Due to this power consumption, the water temperature gradually rises and the conductivity of the water increases, so if this continues, dielectric breakdown of the water will occur and an arc will occur, which is dangerous. Therefore, in order to prevent this, there is a fifth
As shown by the arrow in the figure, it is essential to constantly supply cold water from a river, fire hydrant, or water storage tank, while draining warm water to maintain the water temperature in the water tank c below a certain level. Therefore, when using the water resistor α, a large amount of water is first required.
これを具体的に示せば、20℃の水を供給して70
℃の温水を排出するとして（70−20）×１＝50
［kcal／］、即ち１当たり、50［kcal］の熱量
を放散するとして、発電機出力1000KWの場合、
まず発電機出力を熱量に換算すると1000×860＝
860000［kcalh］、これを１m3当たりの水の放散熱
量（50×1000＝50000kcal）で除せば１時間当た
り17.2［m3］の水が必要であることが分る。これ
を８時間使用するとすれば17.2×８≒140［m3］の
水を必要とすることになる。 To illustrate this concretely, by supplying water at 20℃,
Assuming that hot water at ℃ is discharged (70-20) x 1 = 50
If the generator output is 1000KW, assuming that [kcal/], that is, 50 [kcal] of heat is dissipated per unit,
First, converting the generator output into heat amount is 1000 x 860 =
860,000 [kcalh], divided by the heat dissipated by water per 1 m 3 (50 x 1000 = 50,000 kcal), it turns out that 17.2 [m 3 ] of water is required per hour. If this is used for 8 hours, 17.2×8≒140 [m 3 ] of water will be required.
これだけの水量を確保すること自体困難である
上に、水の導電率は、含有する不純物の量によつ
て変化するため水抵抗器αでは安定した抵抗値が
得られないという欠点を有する。 In addition to being difficult to secure this amount of water, the water resistor α has the drawback that a stable resistance value cannot be obtained because the conductivity of water changes depending on the amount of impurities it contains.
更に重大な欠点は水抵抗器αを使用した時に
は、大量の温排水が生じる点である。というの
は、都市部において前記の条件で、即ち1000KW
の発電機の負荷試験を行い17.2［m3／ｈ］、70℃の
温排水を下水に流した場合、排水能力如何では回
りに湯があふれることになるし、あふれなくても
温水により雑菌が死滅するため下水浄化機能を低
下させてしまうからで、下水の管理者側から負荷
試験を禁止されることもあるのである。 A further serious drawback is that when water resistor α is used, a large amount of heated waste water is generated. This is because under the above conditions in urban areas, i.e. 1000KW.
If we conduct a load test on a generator of 17.2 [m 3 / h] and pour hot wastewater at 70°C into the sewer, hot water will overflow around the area depending on the drainage capacity, and even if it does not overflow, the hot water will introduce bacteria. This is because the sewage purification function deteriorates as the sewage plants die, and sewage management sometimes prohibits load tests.
このように発電機の特性測定に使用する負荷装
置として、水抵抗器は、アーク発生の危険がある
点、大量の水を要する点、、抵抗値が不安定であ
る点、又大量の温排水が発生する点など種々の問
題点を有するものであつた。 As a load device used to measure the characteristics of generators, water resistors have the following disadvantages: they pose a risk of arcing, require large amounts of water, have unstable resistance values, and generate large amounts of heated wastewater. This method had various problems such as the occurrence of.
［発明が解決しようとする問題点］
しかして本発明は、温熱電極排水を発生させず
にリサイクル使用を可能とし又冷却水量の消費も
著しく減少させるのに有効適切な水抵抗器におけ
る開放型循環温熱電極水冷却処理装置を提供せん
とするものである。[Problems to be Solved by the Invention] However, the present invention provides an open circulation system in a suitable water resistor that is effective in enabling recycling without generating hot electrode waste water and significantly reducing the consumption of cooling water. It is an object of the present invention to provide a thermal electrode water cooling treatment device.
［問題点を解決するための手段］
本発明の水抵抗器における開放型循環温熱電極
水冷却処理装置は温熱水を導入し内部を通過させ
るラジエターに対面して、当該ラジエターに水を
スプレー噴射し、このスプレー噴射させた水の蒸
発潜熱にて前記ラジエター内部の温排水を冷却す
るスプレー管と、前記ラジエターの直前に配置さ
れ当該ラジエターに供給される電極水の導電率を
下げる目的のフイルターと純水器と、前記ラジエ
ターの表面を風冷するとともにそこから発生する
蒸気を空間に拡散せしめるフアンとガラリとを
夫々配設したものである。[Means for Solving the Problems] The open circulation heating electrode water cooling treatment device in the water resistor of the present invention faces the radiator through which hot water is introduced and passes through the interior, and sprays water onto the radiator. , a spray pipe that cools the heated waste water inside the radiator using the latent heat of vaporization of the sprayed water, a filter that is placed immediately in front of the radiator and that aims to lower the conductivity of the electrode water that is supplied to the radiator; A water container, a fan and a louver are respectively installed to cool the surface of the radiator and to diffuse the steam generated from the radiator into the space.
［実施例］
電極水冷却処理装置を適用した本発明の実施例
を第１図乃至第４図に基づき説明する。[Example] An example of the present invention to which an electrode water cooling treatment device is applied will be described based on FIGS. 1 to 4.
尚、電極水冷却処理装置Ａの説明に先立ち若
干、説明すると第１図乃至第４図中Ｂは本発明者
の創作にかかり別途先願中の水抵抗器である。 Before explaining the electrode water cooling processing device A, a brief explanation will be given. B in FIGS. 1 to 4 is a water resistor created by the present inventor and which is currently under separate application.
この水抵抗器Ｂは壁側中間部位に給水孔１を又
底部に排水孔２を穿設して内部に所定量の水を貯
蔵する有底円筒形のベース電極３と当該ベース電
極３の底部中央に固定した碍子１を貫通して立設
しその下端に発電機の出力ケーブル５を接続する
円筒形の主電極６と当該主電極６の露出長を調整
すべく昇降動自在に吊設され前記主電極６を覆う
絶縁鞘筒７とからなる。 This water resistor B has a bottomed cylindrical base electrode 3 which has a water supply hole 1 in the middle part of the wall side and a drainage hole 2 in the bottom part to store a predetermined amount of water inside, and the bottom part of the base electrode 3. A cylindrical main electrode 6 is erected through an insulator 1 fixed at the center, and a cylindrical main electrode 6 is connected to the output cable 5 of the generator at its lower end. It consists of an insulating sheath tube 7 that covers the main electrode 6.
水抵抗器Ｂは第１図乃至第４図中では１つであ
るが３本１組であり、夫々、主電極６は発電機の
３相の各１相を接続し、一方ベース電極３間を相
互に接続して接地する。従つてＹ接続の抵抗器と
なる。 Although there is only one water resistor B in FIGS. 1 to 4, there are three water resistors in a set, and the main electrode 6 connects each of the three phases of the generator, while the base electrode 3 Connect them together and ground them. Therefore, it becomes a Y-connected resistor.
この水抵抗器Ｂから排出される水を冷却して再
び送り込む本発明の水抵抗器における開放型循環
温熱電極水冷却処理装置たる電極水冷却処理装置
Ａは、ラジエター８と当該ラジエター８に後面か
ら水を吹き付けるスプレー管９と当該スプレー管
９の背後から送風するフアン１０と当該フアン１
０にてラジエター８前面に送出された送風を導き
上方空間に散出させるガラリ１１と前記ラジエタ
ー８の下側に配置しスプレー管９からラジエター
８に吹き付けられて落下した水を回収する回収水
槽１２と、前記水抵抗器Ｂとラジエター８間を循
環する水を予め貯留しておく貯水タンク１３の間
に次のような管路を形成してある。 The electrode water cooling treatment device A, which is an open circulation heating electrode water cooling treatment device in the water resistor of the present invention, cools the water discharged from the water resistor B and sends it again. A spray pipe 9 that sprays water, a fan 10 that blows air from behind the spray pipe 9, and the fan 1
A louver 11 that guides the air sent to the front of the radiator 8 at 0 and scatters it into the upper space, and a recovery water tank 12 that is disposed below the radiator 8 and collects water that is sprayed onto the radiator 8 from the spray pipe 9 and falls. The following pipe line is formed between the water resistor B and a water storage tank 13 in which water circulating between the radiator 8 and the water tank 13 is stored in advance.
即ち、貯水タンク１３に貯留されている水を当
該水中に垂設した吸引管１４から純水ポンプ１５
で汲み上げフイルター１６，１７及び純度を高め
る純粋器たる例えばイオン交換樹脂等の純水器１
８を通した後ラジエター８に供給する純水充填管
路１９と、純水充填管路１９を通つて、充填され
た水をラジエター８の下部排出口８ａから水抵抗
器Ｂに送り込み当該水抵抗器Ｂから排出される温
水を介設したポンプ２０でラジエター８の上部注
入口８ｂに送る冷却循環管路２１と、ラジエター
８の下部排出口８ａから送り出される水を介設し
た純水ポンプ１５にて冷却コイル２２を通して冷
却しながら再び前記純水充填管路１９に戻すフラ
ツシグ戻し管路２３と、介設したスプレーポンプ
２４にて前記貯水タンク１３中に垂設した吸引管
１４と回収水槽１２中に垂設した吸引管２５のい
ずれか一方から水を汲み上げてスプレー管９に送
るスプレー送水管路２６とを、切替自在な切替弁
２７，２８，２９を介して形成してある。第１図
中３０はフアンモーター、３１，３２，３３は
各々フアンモーター３０、純水ポンプ１５、スプ
レーポンプ２４の速度制御器、３４は冷却コイル
である。 That is, the water stored in the water storage tank 13 is pumped through the pure water pump 15 from the suction pipe 14 vertically installed in the water.
pumping filters 16 and 17, and a water purifier 1 for increasing purity, such as an ion exchange resin water purifier 1.
8, the filled water is sent to the water resistor B from the lower discharge port 8a of the radiator 8 through the pure water filling pipe 19 and the pure water filling pipe 19, which supplies the water to the radiator 8. A cooling circulation pipe 21 that sends the hot water discharged from the container B to the upper inlet 8b of the radiator 8 with the interposed pump 20, and a pure water pump 15 that carries the water sent out from the lower outlet 8a of the radiator 8. A flushing return pipe 23 returns the pure water to the pure water filling pipe 19 while being cooled through a cooling coil 22, and a suction pipe 14 vertically installed in the water storage tank 13 and the collection water tank 12 are connected to a spray pump 24. A spray water supply line 26 for drawing up water from either one of the suction pipes 25 vertically installed and sending it to the spray pipe 9 is formed via switchable switching valves 27, 28, and 29. In FIG. 1, 30 is a fan motor, 31, 32, and 33 are speed controllers for the fan motor 30, the pure water pump 15, and the spray pump 24, respectively, and 34 is a cooling coil.
［作用］
以上のように構成された電極水冷却処理装置Ａ
の作用について述べる。[Function] Electrode water cooling treatment device A configured as above
We will discuss the effects of
まず第２図に矢印で示すように、吸引管１４及
び純水充填管路１９を経て純水化した水がラジエ
ター８に供給され水抵抗器Ｂに充たされる。即
ち、貯水タンク１３より純水ポンプ１５にて吸い
上げられた水は、純水ポンプ１５を通過後冷却コ
イル３４を通過し、フイルター１６で砂等を除か
れフイルター１７に入り塩素を除かれ純水器１８
に入る。このときの導電率は普通水道水が約200
［μs／cm］であるが、これを純水器１８で約１
［μs／cm］に下げてある。これをラジエター８に
供給すると、この時点では電極水ポンプ２０を作
動していないので水は矢印で示すように双方向か
ら冷却循環管路２１を通つて水抵抗器Ｂ内に充た
される。 First, as shown by arrows in FIG. 2, purified water is supplied to the radiator 8 through the suction pipe 14 and the pure water filling line 19, and is filled into the water resistor B. That is, water sucked up by the pure water pump 15 from the water storage tank 13 passes through the pure water pump 15, passes through the cooling coil 34, removes sand etc. with the filter 16, enters the filter 17, removes chlorine, and becomes pure water. vessel 18
to go into. The conductivity at this time is about 200 for ordinary tap water.
[μs/cm], but this is approximately 1
It is lowered to [μs/cm]. When this water is supplied to the radiator 8, since the electrode water pump 20 is not operated at this point, the water is filled into the water resistor B through the cooling circulation pipe 21 from both directions as shown by the arrows.
これで水の充填作業は完了するが、電極水ポン
プ２０を回してみた結果不純物が溶け出し導電率
が高くなる場合には一度排水して最初からの作業
を繰り返す。 This completes the water filling operation, but if as a result of turning the electrode water pump 20, impurities are dissolved and the conductivity becomes high, drain the water once and repeat the operation from the beginning.
ここで冷却コイル２２，３４は純水器１８の最
高使用温度が40℃であるため、この温度以下に水
を冷却するためのものである。 Here, since the maximum operating temperature of the water purifier 18 is 40° C., the cooling coils 22 and 34 are used to cool the water to a temperature below this temperature.
次に切替弁２８，２９にて純水充填管路１９を
閉じた後第３図に矢印で示すように充填された水
を電極水ポンプ２０を作動させて冷却循環管路２
１中を循環させる。 Next, after closing the pure water filling pipe 19 with the switching valves 28 and 29, the electrode water pump 20 is operated to pump the filled water into the cooling circulation pipe 19 as shown by the arrow in FIG.
Circulate the inside of 1.
同時にスプレーポンプ２４も作動させて第３図
に矢印で示すように吸引管１４で貯水タンク１３
より水を吸い上げスプレー送水管路２６を通し
て、スプレー管９よりラジエター８に向い点線で
示すようにスプレー噴射させる。一方、フアンモ
ーター３０も作動せしめてフアン１０を回しラジ
エター８背面側から送風する。 At the same time, the spray pump 24 is also activated, and the suction pipe 14 is connected to the water storage tank 13 as shown by the arrow in FIG.
The water is sucked up, passed through the spray water supply pipe 26, and sprayed from the spray pipe 9 toward the radiator 8 as shown by the dotted line. On the other hand, the fan motor 30 is also operated to turn the fan 10 and blow air from the back side of the radiator 8.
従つて水抵抗器Ｂを通過する間に水は抵抗とし
て電力を消費し温水となつてラジエター８に送ら
れるが、この温水はラジエター８通過中にスプレ
ー噴射された水と風にて冷却される。一方、スプ
レー噴射された水はラジエター８表面でラジエタ
ー８内を通過中の温水の熱を奪つて蒸発しラジエ
ター８背面から吹き付けられる送風にて送り出さ
れラジエター８前面に配設したガラリ１１のガイ
ド板１１ａに沿つて点線の矢印で示すように電極
水冷却処理装置Ａの上方に吹き上げ拡散する。そ
の後ラジエター８で冷却された水は再び水抵抗器
Ｂに供給される。 Therefore, while passing through the water resistor B, the water consumes electric power as a resistance, becomes hot water, and is sent to the radiator 8, but this hot water is cooled by the sprayed water and wind while passing through the radiator 8. . On the other hand, the sprayed water absorbs the heat of the hot water passing through the radiator 8 on the surface of the radiator 8, evaporates, and is sent out by the air blown from the back of the radiator 8, which is then sent to the guide plate of the louver 11 arranged in front of the radiator 8. It blows up and diffuses above the electrode water cooling treatment device A along line 11a as shown by the dotted arrow. Thereafter, the water cooled by the radiator 8 is supplied to the water resistor B again.
ラジエター８の冷却にあたりスプレー噴射され
た水で蒸発し切れなかつたものはガラリ１１に付
着し自重で落下するため回収水槽１２に回収され
る。従つて回収水槽１２が満水位に近くなれば今
度は切替弁２７を切り替えて回収水槽１２内の水
を吸引管２５を通してスプレーポンプ２４で吸い
上げスプレー管９に送り込めば良い。 Water that is not completely evaporated by the water sprayed during cooling of the radiator 8 adheres to the louver 11 and falls under its own weight, so that it is collected in the collection tank 12. Therefore, when the water level in the collection water tank 12 is nearly full, the switching valve 27 is switched to allow the water in the collection water tank 12 to be sucked up by the spray pump 24 through the suction pipe 25 and sent to the spray pipe 9.
また、回収水槽１２と貯水タンク１３を連通し
ておいて吸引管２５と切替弁２７を省略するよう
にしても良い。 Alternatively, the collection water tank 12 and the water storage tank 13 may be communicated with each other, and the suction pipe 25 and the switching valve 27 may be omitted.
尚、運転中に循環中の水の導電率を下げたい時
は切替弁２８，２９を切り替えて第４図に矢印で
示すよう水をフラツシング戻し管路２３と純水充
填管路１９を経て循環させるようにする。即ち、
水はラジエター８から排出され冷却コイル２２を
通つて純水ポンプ１５にて冷却コイル３４に送り
込まれ、さらにフイルタ１６，１７純水器１８を
通つて再びラジエター８に戻るため異物や塩素が
除かれて導電率を下げることができる。 If you wish to lower the electrical conductivity of the circulating water during operation, switch the switching valves 28 and 29 to circulate the water through the flushing return pipe 23 and the pure water filling pipe 19 as shown by the arrows in Fig. 4. Let them do it. That is,
Water is discharged from the radiator 8, passes through the cooling coil 22, is sent to the cooling coil 34 by the pure water pump 15, and then returns to the radiator 8 through the filters 16, 17 and the water purifier 18, so that foreign substances and chlorine are removed. can lower the conductivity.
［効果］
以上のように本発明の電極水冷却処理装置では
水抵抗器から排出される温水を冷却し循環使用す
るため温排水を外部に放出せずに済み又、蒸発に
よつて温水の冷却を行うため水の蒸発潜熱
（560kcal／）分の熱放散能力を有することにな
る。これは前記の温水放流方式に比べ約11倍
（560／50≒11）の能力であるから、必要な水量は
水の飛散損失をみても約1/10で足りることにな
る。更にフラツシング戻し管路２３を配し、当該
フラツシング戻し管路２３とフイルタ１６，１７
及び純水器１８を介設して純水充填管路１９とラ
ジエター８とを随時自由に循環できるようにして
あるため水の導電率を調整でき、抵抗値を一定に
保つことが可能であるのみならず、回収水槽１２
を設けることで水の飛散損失を小さく押える等極
めて優れた効果を奏する。[Effects] As described above, the electrode water cooling treatment device of the present invention cools and circulates the hot water discharged from the water resistor, so there is no need to release hot water to the outside, and the hot water is cooled by evaporation. Therefore, it has a heat dissipation capacity equivalent to the latent heat of vaporization of water (560 kcal/). This is approximately 11 times the capacity of the hot water discharge method described above (560/50≒11), so the required amount of water is only about 1/10, even considering the loss of water scattering. Furthermore, a flushing return pipe 23 is arranged, and the flushing return pipe 23 and the filters 16 and 17 are connected to each other.
A deionizer 18 is interposed to allow free circulation between the deionized water filling pipe 19 and the radiator 8 at any time, so the conductivity of the water can be adjusted and the resistance value can be kept constant. Not only collection tank 12
By providing this, extremely excellent effects such as minimizing water scattering loss can be achieved.
第１図乃至第４図は各々本発明の一実施例を示
し水抵抗器Ｂと当該水抵抗器Ｂに接続使用する電
極水冷却処理装置Ａの説明図、第５図は従来の水
抵抗器の斜視図である。
Ａ……電極水冷却処理装置、Ｂ……水抵抗器、
α……水抵抗器、ａ……高圧ケーブル、ｂ……電
極板、ｃ……水槽、１……給水孔、２……排水
孔、３……ベース電極、４……碍子、５……出力
ケーブル、６……主電極、７……絶縁鞘筒、８…
…ラジエター、８ａ……排出孔、８ｂ……注入
孔、９……スプレー管、１０……フアン、１１…
…ガラリ、１２……回収水槽、１３……貯留タン
ク、１４……吸引管、１５……純水ポンプ、１
６，１７……フイルター、１８……純水器、１９
……純水充填管路、２０……ポンプ、２１……冷
却循環管路、２２……冷却コイル、２３……フラ
ツシング戻し管路、２４……スプレーポンプ、２
５……吸引管、２６……スプレー送水管路、２
７，２８，２９……切替弁、３０……フアンモー
ター、３１，３２，３３……速度制御器、３４…
…冷却コイル。
1 to 4 each show an embodiment of the present invention, and are explanatory diagrams of a water resistor B and an electrode water cooling processing device A used in connection with the water resistor B, and FIG. 5 shows a conventional water resistor. FIG. A... Electrode water cooling treatment device, B... Water resistor,
α... Water resistor, a... High voltage cable, b... Electrode plate, c... Water tank, 1... Water supply hole, 2... Drain hole, 3... Base electrode, 4... Insulator, 5... Output cable, 6... Main electrode, 7... Insulating sheath tube, 8...
...Radiator, 8a...Discharge hole, 8b...Injection hole, 9...Spray pipe, 10...Fan, 11...
...Gallery, 12...Recovery water tank, 13...Storage tank, 14...Suction pipe, 15...Pure water pump, 1
6, 17...Filter, 18...Water purifier, 19
...Pure water filling pipe line, 20...Pump, 21...Cooling circulation pipe line, 22...Cooling coil, 23...Flushing return pipe line, 24...Spray pump, 2
5...Suction pipe, 26...Spray water pipe, 2
7, 28, 29...Switching valve, 30...Fan motor, 31, 32, 33...Speed controller, 34...
...cooling coil.
Claims (1)
路途上において、当該水抵抗器から排出された温
水を導入し内部を通過させ冷却恒温するためのラ
ジエターと、当該ラジエターに前記水循環経路と
並列的に連設した水循環経路に設けられたフイル
ターおよび純水器と、前記ラジエターの対面側全
般に水のスプレー噴射を行つてこのスプレー噴射
させた水の蒸発潜熱にて前記ラジエター内部の温
水を冷却恒温するスプレー管と、当該スプレー管
の背後に配設され前記ラジエターの表面を風冷し
て内部の温水を冷却恒温するとともに表面付着水
およびそこから発生する蒸気を吹飛ばすフアン
と、前記ラジエターを中に挟んで前記スプレー管
および前記フアンの配設側と反対側に配設され前
記フアンにより吹飛ばされて来た水滴および蒸気
を受けて気水分離し、蒸気の放散と水の回収を促
すガラリとを備えて水抵抗器で抵抗体として使用
する水の温度と純度を恒定制御し一定の導電率を
維持管理するようにしてなる水抵抗器における開
放型循環温熱電極水冷却処理装置。 ２ ガラリは、蒸発し切れず付着し自重により落
下する水を回収する回収水槽を下方に配設してな
る特許請求の範囲第１項記載の水抵抗器における
開放型循環温熱電極水冷却処理装置。 ３ 回収水槽は、スプレー管よりスプレー噴射さ
れる水を貯留しておく貯留タンクに連通してなる
特許請求の範囲第２項記載の水抵抗器における開
放型循環温熱電極水冷却処理装置。[Scope of Claims] 1. A radiator for introducing hot water discharged from the water resistor into the water resistor and cooling it at a constant temperature by passing it through the water resistor in the middle of the circulation path of water used as a resistor in the water resistor; A filter and a water purifier provided in a water circulation path connected in parallel with the water circulation path and the entire opposite side of the radiator are sprayed with water, and the radiator is heated by the latent heat of vaporization of the sprayed water. A spray pipe that cools and maintains the temperature of the hot water inside the radiator, and a fan that is disposed behind the spray pipe and cools the surface of the radiator to keep the hot water inside the radiator at a constant temperature and blows off water adhering to the surface and steam generated therefrom. The radiator is placed on the side opposite to the side where the spray pipe and the fan are installed, and receives water droplets and steam blown away by the fan, separates steam and water, and dissipates the steam. An open circulating heating electrode water in a water resistor that is equipped with a louver that promotes water recovery and that constantly controls the temperature and purity of the water used as a resistor in the water resistor to maintain and manage a constant conductivity. Cooling treatment equipment. 2. An open circulating thermal electrode water cooling treatment device in a water resistor according to claim 1, wherein the louver is provided with a collection tank below which collects water that has not completely evaporated and falls due to its own weight. . 3. The open circulation thermal electrode water cooling treatment device in a water resistor according to claim 2, wherein the recovery water tank is in communication with a storage tank that stores water sprayed from a spray pipe.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP26253285A JPS62123287A (en) | 1985-11-25 | 1985-11-25 | Cooling processing device for heated fluid |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP26253285A JPS62123287A (en) | 1985-11-25 | 1985-11-25 | Cooling processing device for heated fluid |
Publications (2)
| Publication Number | Publication Date |
|---|---|
| JPS62123287A JPS62123287A (en) | 1987-06-04 |
| JPH0246879B2 true JPH0246879B2 (en) | 1990-10-17 |
Family
ID=17377102
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| JP26253285A Granted JPS62123287A (en) | 1985-11-25 | 1985-11-25 | Cooling processing device for heated fluid |
Country Status (1)
| Country | Link |
|---|---|
| JP (1) | JPS62123287A (en) |
Families Citing this family (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPS63260003A (en) * | 1987-12-08 | 1988-10-27 | 株式会社興研 | Method of employing circulated water as resistance element of resistor |
| KR920002257B1 (en) * | 1988-07-11 | 1992-03-20 | 가부시끼가이샤 고켄(株式會社 興硏) | Electrode water circulation and processing system and hooded radiator for water rheostat |
| US6852435B2 (en) * | 2002-07-23 | 2005-02-08 | Deere & Company | Fuel cell cooling system |
Family Cites Families (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPS5112754U (en) * | 1974-07-08 | 1976-01-30 | ||
| JPS5852461U (en) * | 1981-09-29 | 1983-04-09 | 多田電機株式会社 | Closed cooling tower |
-
1985
- 1985-11-25 JP JP26253285A patent/JPS62123287A/en active Granted
Also Published As
| Publication number | Publication date |
|---|---|
| JPS62123287A (en) | 1987-06-04 |
Similar Documents
| Publication | Publication Date | Title |
|---|---|---|
| NO148051B (en) | ELECTROLYTE COOLING DEVICE FOR BATTERY BATTERIES | |
| WO2009045168A1 (en) | System and method for extracting atmospheric water | |
| CN102368615A (en) | SVC (static vary compensation) closed type circulating pure water cooling system | |
| CA3007378A1 (en) | Method and device for introducing and for extracting heat energy into and from a body of water | |
| JPS6310562B2 (en) | ||
| CN112260091A (en) | Automatic heat dissipation power distribution cabinet and heat dissipation method thereof | |
| JPH0246879B2 (en) | ||
| CN215419052U (en) | Constant temperature control high-low voltage distribution switch cabinet | |
| CN207925984U (en) | A kind of fire prevention transformation case | |
| KR920002257B1 (en) | Electrode water circulation and processing system and hooded radiator for water rheostat | |
| JPH0143441B2 (en) | ||
| RU2133918C1 (en) | Room heating device | |
| CN108153352A (en) | Cooling device, system and method for electrical cabinet and wind driven generator | |
| CN214634075U (en) | Automatically controlled reuse water equipment that radiating effect is good | |
| CN113983860B (en) | Intelligent control system and control method for cooling tower | |
| JP2669438B2 (en) | Test equipment such as private generators | |
| GB2206940A (en) | Isolating a section of a pipe by freezing to make repairs | |
| CA2055809A1 (en) | Process for refrigerating a busway for very low temperature electrical material and device for carrying such | |
| JPS63260003A (en) | Method of employing circulated water as resistance element of resistor | |
| JPH0255964A (en) | Device for processing system to circulate electrode water for water rheostat and radiator provided with hood | |
| CN2591852Y (en) | Hydrogen dehumidifing & Cooling apparatus | |
| JP4140677B2 (en) | Desalination equipment | |
| JP2798778B2 (en) | Test equipment such as private generators | |
| JP2005155983A (en) | Panel cooling system | |
| CN218123131U (en) | High-voltage transformer with high use safety |
Legal Events
| Date | Code | Title | Description |
|---|---|---|---|
| R250 | Receipt of annual fees |
Free format text: JAPANESE INTERMEDIATE CODE: R250 |
|
| EXPY | Cancellation because of completion of term |