JP3022653U - Cooling device for cooling / heating element in purified water cooling device - Google Patents
Cooling device for cooling / heating element in purified water cooling deviceInfo
- Publication number
- JP3022653U JP3022653U JP1995010713U JP1071395U JP3022653U JP 3022653 U JP3022653 U JP 3022653U JP 1995010713 U JP1995010713 U JP 1995010713U JP 1071395 U JP1071395 U JP 1071395U JP 3022653 U JP3022653 U JP 3022653U
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- Prior art keywords
- cooling
- refrigerant
- water
- cooling device
- heating element
- 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.)
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Abstract
(57)【要約】
【課題】 モーターファンを使用するため総重量が増加
し、電気エネルギーの消費量が多く、モーターファンの
稼働音が騒音になる。
【解決手段】 請求項１では冷却タンク８に冷熱素子１
０を取り付け、冷熱素子１０に放熱体１１を設け、放熱
体１１にメンブレン４から出る浄化廃水Ｗ1 と前記原水
ＷO のいずれか一方又はその両方を冷媒Ｗ2 として流す
冷媒通路３０を設けた。請求項２では放熱体１１を上体
１２と下体１３とで構成し、下体１３に冷媒Ｗ2 を流す
冷媒通路３０を形成し、冷媒通路３０を冷媒流入孔１５
と、その外周に設けた冷媒流通路１６と、冷媒流通路１
６の末端に設けた冷媒流出孔１７で形成した。
(57) [Abstract] [PROBLEMS] Since a motor fan is used, the total weight is increased, the electric energy consumption is large, and the operation noise of the motor fan becomes a noise. SOLUTION: In the first aspect, the cooling / heating element 1 is provided in the cooling tank 8.
0, the cooling element 10 is provided with the radiator 11, and the radiator 11 is provided with the refrigerant passage 30 through which one or both of the purified wastewater W 1 and the raw water W O discharged from the membrane 4 are made to flow as the refrigerant W 2 . . In the second aspect, the radiator 11 is composed of the upper body 12 and the lower body 13, the lower body 13 is formed with the refrigerant passage 30 through which the refrigerant W 2 flows, and the refrigerant passage 30 is formed with the refrigerant inflow hole 15
And the refrigerant flow passage 16 provided on the outer periphery thereof and the refrigerant flow passage 1
It was formed by the refrigerant outflow hole 17 provided at the end of 6.
Description
【０００１】[0001]
本考案は原水を浄化し、浄化された水を冷却する浄水冷却装置の冷熱素子を冷 却するための装置（浄水冷却装置における冷熱素子の冷却装置）に関するもので あり、詳しくは浄水過程で発生する浄化廃水又は浄化する原水を冷熱素子を冷却 する冷媒として利用するようにしたものである。 The present invention relates to a device for purifying raw water and cooling a cooling / heating element of a purified water cooling device for cooling purified water (cooling device for cooling / heating element in purified water cooling device). The purified wastewater to be purified or the raw water to be purified is used as a coolant for cooling the cooling / heating element.
【０００２】[0002]
従来の一般の浄水器は水をそのまま飲むことができるように浄化することはで きるが、浄化水を冷却する冷却装置を備えていなかったため浄化水の水温を低く する（冷却する）ことはできなかった。冷たい浄化水は気温が高い季節の飲料水 として適するが、従来の浄水器では冷却が不可能であるため、従来は冷蔵庫、冷 凍室、冷蔵室または氷によって浄化水を冷やしていた。しかし、このように浄化 後に別の冷媒を用いて浄化水を冷却することは手間と時間がかかり面倒であり、 不便であり、コストアップにもなっていた。 Conventional water purifiers can purify water so that it can be drunk, but they do not have a cooling device to cool the purified water, so the temperature of the purified water can be lowered (cooled). There wasn't. Cold purified water is suitable as drinking water in high temperature seasons, but it cannot be cooled by conventional water purifiers, so conventionally, purified water was cooled by a refrigerator, a freezer compartment, a refrigerator compartment or ice. However, cooling purified water using another refrigerant after purification in this way is time-consuming, time-consuming, inconvenient, and costly.
【０００３】 そこで、本件考案者は前記の諸問題を解決するため、浄水器の浄化水を冷却す るための冷却装置を開発し、それを韓国に特許出願した（韓国特許出願第９４− ２５８９２号）。この先行技術は冷却槽の底面にＮ−Ｐ半導体、つまり冷素子と 熱素子とからなる冷熱素子（ペルチェ素子）の冷素子を冷却槽側に取付け、熱素 子の外面に放熱板を取付け、放熱板の下方にモーターファンを設けたものである 。この先行技術では冷熱素子の冷素子により冷却槽が冷却され、冷却槽内の浄化 水が冷却される。このとき冷熱素子の熱素子から放出される熱は前記放熱板を通 じて外部に放散され、更に、モーターファンにより放熱板の熱が大気中に放出さ れるて冷却の迅速性と効率性が高まる。In order to solve the above problems, the inventor of the present invention has developed a cooling device for cooling purified water of a water purifier and applied for a patent in Korea (Korean Patent Application No. 94-25892). issue). In this prior art, an N-P semiconductor, that is, a cooling element of a cooling / heating element (Peltier element) composed of a cooling element and a heating element is mounted on the cooling tank side on the bottom surface of the cooling tank, and a radiator plate is mounted on the outer surface of the heat element. A motor fan is installed below the heat sink. In this prior art, the cooling tank is cooled by the cooling element of the cooling / heating element, and the purified water in the cooling tank is cooled. At this time, the heat emitted from the heat element of the cold heat element is dissipated to the outside through the heat dissipation plate, and further, the heat of the heat dissipation plate is dissipated to the atmosphere by the motor fan, so that the cooling speed and efficiency are improved. Increase.
【０００４】[0004]
しかしながら、前記浄水器の冷却装置はモーターファンを使用するため総重量 が増加し、電気エネルギーの消費量が多くなってランニングコストが上昇し、モ ーターファンの稼働音が騒音になるという新たな問題が発生した。 However, since the cooling device of the water purifier uses a motor fan, the total weight is increased, the consumption of electric energy is increased, the running cost is increased, and the operation noise of the motor fan becomes a new problem. Occurred.
【０００５】 本考案の目的はモーターファンを使用しなくとも迅速且つ効率良く冷却でき、 電気の消費量を大幅に節減でき、騒音も出ない浄水冷却装置を提供することにあ る。An object of the present invention is to provide a purified water cooling device that can cool quickly and efficiently without using a motor fan, can significantly reduce electricity consumption, and generate no noise.
【０００６】[0006]
本考案のうち請求項１の浄水冷却装置における冷熱素子の冷却装置は、図１に 示す様にメンブレン４と他の浄化装置が設けられた浄水系統に原水ＷO を供給し て同原水ＷO を浄化し、その浄化水を貯水槽７に貯水し、貯水槽７に冷却タンク ８を連結し、冷却タンク８内の浄化水をそれに取付けた冷熱素子１０により冷却 するようにした浄水冷却装置において、前記冷熱素子１０に放熱体１１を設け、 その放熱体１１にメンブレン４から出る浄化廃水Ｗ1 と前記原水ＷO のいずれか 一方又はその両方を冷媒Ｗ2 として流す冷媒通路３０を設けたものである。As shown in FIG. 1, the cooling device for the cooling / heating element in the purified water cooling device according to claim 1 of the present invention supplies the raw water W O to the purified water system provided with the membrane 4 and other purification devices to supply the same raw water W O. In the purified water cooling device, the purified water is stored in the water tank 7, the cooling tank 8 is connected to the water tank 7, and the purified water in the cooling tank 8 is cooled by the cooling / heating element 10 attached thereto. , those wherein the heat radiating body 11 is provided on the cold element 10, provided with a coolant passage 30 to flow either or both of purifying waste water W 1 and the raw water W O leaving the membrane 4 to the heat radiating body 11 as the refrigerant W 2 Is.
【０００７】 本考案のうち請求項２の浄水冷却装置における冷熱素子の冷却装置は、図１に 示す様に請求項１における放熱体１１が上体１２と下体１３とからなり、下体１ ３に冷媒Ｗ2 を流す冷媒通路３０が形成され、冷媒通路３０は外部から冷媒Ｗ2 が流れ込む冷媒流入孔１５が形成され、その外周に冷媒流入孔１５から流出する 冷媒Ｗ2 が流れる冷媒流通路１６が形成され、冷媒流通路１６の末端にそれから 流れ込む冷媒Ｗ2 を下体１３の外部に流出する冷媒流出孔１７が形成されてなる ものである。In the cooling device for cooling / heating elements in the purified water cooling device according to claim 2 of the present invention, as shown in FIG. 1, the radiator 11 in claim 1 is composed of an upper body 12 and a lower body 13, and a lower body 13 is provided. A coolant passage 30 for flowing the coolant W 2 is formed, and a coolant inflow hole 15 into which the coolant W 2 flows from the outside is formed in the coolant passage 30, and a coolant flow passage 16 through which the coolant W 2 flowing out from the coolant inflow hole 15 flows around the coolant inflow hole 15. Is formed, and a refrigerant outflow hole 17 is formed at the end of the refrigerant flow passage 16 to allow the refrigerant W 2 flowing thereinto to flow out of the lower body 13.
【０００８】 本考案のうち請求項３の浄水冷却装置における冷熱素子の冷却装置は、図１に 示す様に請求項１又は請求項２における冷媒通路３０がメンブレン４の浄化廃水 Ｗ1 が流れる退水管路２１と、原水を供給するバイパス管路２２に接続されてな るものである。In the cooling device of the cooling / heating element in the purified water cooling device according to claim 3 of the present invention, as shown in FIG. 1, the cooling passage 30 according to claim 1 or 2 causes the purified wastewater W 1 of the membrane 4 to flow back. It is connected to a water pipeline 21 and a bypass pipeline 22 for supplying raw water.
【０００９】 本考案のうち請求項４の浄水冷却装置における冷熱素子の冷却装置は、図１に 示す様に請求項３における退水管路２１に浄化廃水Ｗ1 の流量を調節する流量調 節弁１９を設けたものである。A cooling device for cooling and heating elements in a purified water cooling device according to a fourth aspect of the present invention is a flow rate control valve for adjusting the flow rate of purified wastewater W 1 to a water discharge conduit 21 according to the third aspect as shown in FIG. 19 is provided.
【００１０】 本考案のうち請求項５の浄水冷却装置における冷熱素子の冷却装置は、図１に 示す様に請求項３におけるバイパス管路２２上にソレノイドバルブ２０を設置し 、同ソレノイドバルブ２０は貯水槽７内に浄化水が満水になって浄水系統への原 水ＷO の供給が遮断されたときに開いて、原水ＷO が放熱体１１に供給されるよ うにしたものである。In the cooling device of the cooling / heating element in the purified water cooling device according to claim 5 of the present invention, a solenoid valve 20 is installed on the bypass pipe line 22 according to claim 3 as shown in FIG. When the purified water is filled in the water tank 7 and the supply of the raw water W O to the purified water system is cut off, the water is opened and the raw water W O is supplied to the radiator 11.
【００１１】[0011]
【考案の実施の形態１】 本考案の浄水冷却装置における冷熱素子の冷却装置を図１に示す実施形態に基 づいて詳細に説明する。 図１に示すものは浄水装置と冷却装置とを備えている。浄水装置に送り込まれ る上水、地下水などの原水ＷO は沈殿フィルター１で一時的に不純物が濾過（一 次濾過）され、第１のソレノイドバルブ１８を通過して昇圧ポンプ２に送られて 昇圧され、第一のカーボンフィルター３を通過して二次濾過され、その後にメン ブレン４に到達する。二次濾過水はその一部のみがメンブレン４を通過して三次 濾過され、その後に第二のカーボンフィルター５に入って四次濾過され、その後 に更にＵ／Ｖフィルター６を経て五次濾過（最終濾過）されて貯水槽７に流れ込 む。First Embodiment of the Invention A cooling device for a cooling / heating element in a purified water cooling device of the present invention will be described in detail based on the embodiment shown in FIG. The thing shown in FIG. 1 is equipped with a water purifier and a cooling device. Clean water Ru fed water purification device, the raw water W O of groundwater temporarily impurities precipitate filter 1 is filtered (primary filtration), is sent to the booster pump 2 passes through the first solenoid valve 18 The pressure is increased, the secondary carbon is filtered through the first carbon filter 3, and then the membrane 4 is reached. Only a part of the secondary filtered water passes through the membrane 4 for tertiary filtering, then enters the second carbon filter 5 for fourth filtering, and then passes through the U / V filter 6 for fifth filtering ( It is finally filtered) and flows into the water storage tank 7.
【００１２】 貯水槽７内の浄化水は貯水量調節装置９によって不足時には補充され、満水時 には浄化水の補充が遮断される。貯水槽７内の浄化水はそのまま取り出して飲料 水として用いたり、洗浄水として使用したりすることができる。The purified water in the water storage tank 7 is replenished by the stored water amount adjusting device 9 when it is insufficient, and when the water is full, the replenishment of purified water is blocked. The purified water in the water storage tank 7 can be taken out as it is and used as drinking water or as washing water.
【００１３】 貯水槽７内の浄化水は冷水タンク８に流入させて冷却水にして取り出すことも できる。そのため図１では冷水タンク８の底面に冷熱素子１０を装着してある。 この冷熱素子１０は冷素子と熱素子とからなり、これらのうち冷素子を冷却タン ク８の底面に密着させて取りつけて、熱素子を下方（外側）に露出させ、更に、 この熱素子の底面に放熱体１１を取付けてある。このような構成にした図１では 冷熱素子１０の冷素子により冷水タンク８が冷却され、その内部の水が冷却され 、冷熱素子１０の熱素子から放散される熱は放熱体１１を通じて外部に放散され る。The purified water in the water storage tank 7 can be made to flow into the cold water tank 8 to be cooled water and then taken out. Therefore, in FIG. 1, the cold heat element 10 is attached to the bottom surface of the cold water tank 8. The cooling / heating element 10 is composed of a cooling element and a heating element. Of these, the cooling element is attached to the bottom surface of the cooling tank 8 so as to be in close contact therewith to expose the heating element downward (outside). A radiator 11 is attached to the bottom surface. In FIG. 1 having such a configuration, the cold water tank 8 is cooled by the cold element of the cold heat element 10, the water inside is cooled, and the heat radiated from the heat element of the cold heat element 10 is radiated to the outside through the radiator 11. Be done.
【００１４】 前記放熱体１１は図２に示すように放熱効率の良い金属製の上体１２及び下体 １３からなり、両者は螺子孔１２ａ、１３ａに螺子込まれる螺子（図示されてい ない）により固定される。上体１２の上面には冷熱素子１０の熱素子１０ｂが配 置される熱素子シート１４が形成されている。下体１３には冷媒通路３０が形成 されている。この冷媒通路３０は図３、４に示すように中央部に縦方向に貫通さ れた冷媒流入孔１５と、この冷媒流入孔１５の周囲に形成された浅い渦巻溝状の 冷媒流通路１６と、冷媒流通路１６の端末に下体１３の上面と下面に貫通するよ うに縦方向に形成された冷媒排出孔１７とから構成されいる。As shown in FIG. 2, the heat radiating body 11 is composed of a metal upper body 12 and a lower body 13 having high heat radiation efficiency, both of which are fixed by screws (not shown) screwed into the screw holes 12a and 13a. To be done. A heat element sheet 14 on which the heat elements 10b of the cooling element 10 are arranged is formed on the upper surface of the upper body 12. A coolant passage 30 is formed in the lower body 13. As shown in FIGS. 3 and 4, the refrigerant passage 30 includes a refrigerant inflow hole 15 vertically penetrating the central portion thereof and a shallow spiral groove-like refrigerant flow passage 16 formed around the refrigerant inflow hole 15. At the end of the coolant flow passage 16, a coolant discharge hole 17 is formed in a vertical direction so as to penetrate the upper surface and the lower surface of the lower body 13.
【００１５】 前記下体１３の冷媒流入孔１５には冷媒Ｗ2 を流す。この実施例では冷媒Ｗ2 として図１に示す原水ＷO 及び浄化廃水Ｗ1 を使用する。浄化廃水Ｗ1 は前記し た第一のカーボンフィルター３を通過して二次濾過されてからメンブレン４に到 達した浄化水のうち、メンブレン４を通過せずに残った不純物や粘質分等である 。この浄化廃水Ｗ1 は従前は下水として廃棄されていたが、本考案では冷媒Ｗ2 として活用する。そのため本考案では図１の様に浄化廃水Ｗ1 を冷媒Ｗ2 として 冷媒流入孔１５その下方から流入する。この冷媒Ｗ2 は渦巻状の冷媒流通路１６ 内を流れ、その末端から冷媒流出孔１７に排出される。この場合、冷媒流通路１ ６の全ての上端は下体１３の上に上体１２を被せることにより閉塞されるため冷 媒Ｗ2 は冷媒流入孔１５に入り、冷媒流通路１６を回り、冷媒排出孔１７を出る まで外部に漏れることなしに全量が熱交換に利用される。冷媒Ｗ2 が一過性通過 した場合は熱交換効率が低いが、本考案のように渦巻状に流れれば冷媒Ｗ2 と上 体１２との接触時間が長くなり、接触面積も拡大されて熱交換が活発になり、冷 却が迅速化され、冷却効率が大幅に向上する。また、前記の浄化廃水Ｗ1 は二次 濾過水の大部分であり、膨大な量であるため、この様に多くの浄化廃水Ｗ1 を冷 媒Ｗ2 として活用することにより、冷水タンク８内の浄化水を冷却させる費用が 殆どかからなくて済み、大変経済的である。Refrigerant W 2 flows into the refrigerant inflow hole 15 of the lower body 13. In this embodiment, the raw water W O and the purified wastewater W 1 shown in FIG. 1 are used as the refrigerant W 2 . The purified wastewater W 1 passes through the first carbon filter 3 described above, is secondarily filtered, and then reaches the membrane 4 and then reaches the membrane 4. Impurities and viscous components remaining without passing through the membrane 4 Is. This purified wastewater W 1 was previously discarded as sewage, but in the present invention it is used as a refrigerant W 2 . Therefore, in the present invention, as shown in FIG. 1, the purified wastewater W 1 flows as the refrigerant W 2 from below the refrigerant inflow hole 15. This refrigerant W 2 flows in the spiral refrigerant flow passage 16 and is discharged to the refrigerant outflow hole 17 from the end thereof. In this case, all the upper ends of the refrigerant flow passages 16 are closed by covering the lower body 13 with the upper body 12, so that the cooling medium W 2 enters the refrigerant inflow holes 15, travels through the refrigerant flow passages 16 and discharges the refrigerant. The entire amount is used for heat exchange without leaking outside until it exits the hole 17. Although the heat exchange efficiency is low when the refrigerant W 2 passes through temporarily, the contact time between the refrigerant W 2 and the upper body 12 becomes longer and the contact area is enlarged if the refrigerant W 2 flows spirally as in the present invention. Heat exchange becomes active, cooling is speeded up, and cooling efficiency is greatly improved. Further, the above-mentioned purified wastewater W 1 is a large part of the secondary filtered water and is an enormous amount. Therefore, by utilizing such a large amount of purified wastewater W 1 as the cooling medium W 2 , the inside of the cold water tank 8 is It is very economical because it costs almost no cost to cool the purified water.
【００１６】 図１の沈殿フィルター１と昇圧ポンプ２との間の管路上には第１のソレノイド バルブ１８が設置されている。これは通常は開いていて沈殿フィルター１で一次 濾過された原水ＷO を昇圧タンク２に送り、貯水槽７内の浄化水が満水となると 閉じて、原水ＷO の流入を遮断して原水ＷO の浪費を防ぐためのものである。A first solenoid valve 18 is installed on the conduit between the settling filter 1 and the booster pump 2 in FIG. This is normally open and sends the raw water W O that has been primarily filtered by the settling filter 1 to the pressurizing tank 2 and closes when the purified water in the water tank 7 is full, shuts off the inflow of the raw water W O and closes the raw water W O. This is to prevent waste of O.
【００１７】 図１のメンブレン４からバイパス管路２２に至る退水管路２１上には流量調節 弁１９が設置されており、バイパス管路２２上であって前記退水管路２１至る前 の部分には第２のソレノイドバルブ２０が設置されている。第２のソレノイドバ ルブ２０は通常は閉じているが、貯水槽７内の浄化水が満水になって第１のソレ ノイドバルブ１８により原水ＷO の供給が遮断され、浄化廃水Ｗ1 が生ぜずに浄 化廃水Ｗ1 を冷媒Ｗ2 として利用することができなくなったときに開いて、バイ パス管路２２に流れる原水ＷO が補助冷媒として放熱体１１に供給されるように するためのものである。A flow control valve 19 is installed on the water discharge conduit 21 extending from the membrane 4 in FIG. 1 to the bypass conduit 22, and is provided on the bypass conduit 22 before the water discharge conduit 21. Is equipped with a second solenoid valve 20. Although the second solenoid valve 20 is normally closed, the purified water in the water tank 7 becomes full and the first solenoid valve 18 cuts off the supply of the raw water W O to generate purified wastewater W 1. If the purified wastewater W 1 cannot be used as the coolant W 2 without being opened, the raw water W O flowing through the bypass passage 22 is supplied to the radiator 11 as an auxiliary coolant. It is a thing.
【００１８】[0018]
前記した冷媒流通路１６は現在では渦巻状に形成することが熱交換効率上望ま しいと判断されるが、製作上の問題、又はその他の要因によって他の形状にする こともできる。 At present, it is considered desirable to form the above-described refrigerant flow passage 16 in a spiral shape in terms of heat exchange efficiency, but it may be formed in another shape depending on manufacturing problems or other factors.
【００１９】[0019]
本考案の浄水冷却装置における冷熱素子の冷却装置は次のような効果がある。 ．冷熱素子に取りつけられている放熱体が冷熱素子の熱素子から放出される 熱を外部に放散し、しかも放熱体が冷媒により冷却されるので長時間運転しても 冷熱素子の冷却効率が低下せず、冷却タンク内の浄化水が短時間で効率良く冷却 される。 ．放熱体を冷却する冷媒にメンブレンを経て出る浄化廃水を活用するので、 浄化廃水が有効活用され経済的である。 ．浄化廃水が足りない時は原水を冷媒として利用するので、冷媒が確実に確 保され、放熱体の冷却も確保される。 ．放熱促進用のモーターファンを必要としないので、冷却装置の構造が簡潔 になると共に軽量になり、製作費の大幅的な節減は勿論、電力を必要としないの で大幅な省エネルギーとなり、ランニングコストが大幅に低減し、モーターファ ンの稼働による騒音も無くなり、静粛になる。 The cooling device for the cooling / heating element in the purified water cooling device of the present invention has the following effects. . The heat radiator attached to the cold heat element dissipates the heat emitted from the heat element of the cold heat element to the outside, and moreover, the heat radiator is cooled by the refrigerant, so the cooling efficiency of the cold heat element decreases even if it is operated for a long time. Instead, the purified water in the cooling tank can be cooled efficiently in a short time. . Since the purified wastewater that passes through the membrane is used as the coolant for cooling the radiator, the purified wastewater is effectively used and is economical. . When the purified wastewater is insufficient, the raw water is used as a refrigerant, so that the refrigerant is reliably secured and cooling of the radiator is also secured. . Since a motor fan for promoting heat dissipation is not required, the structure of the cooling device is simple and lightweight, not only is the manufacturing cost drastically saved, but it also saves electricity because it does not require electric power and running costs. The noise is greatly reduced, the noise caused by the operation of the motor fan is eliminated, and it is quiet.
【図１】本考案の浄水冷却装置における冷熱素子の冷却
装置を利用した浄水冷却装置の全体図である。FIG. 1 is an overall view of a purified water cooling device using a cooling device of a cooling / heating element in the purified water cooling device of the present invention.
【図２】本考案における放熱体の斜視図である。FIG. 2 is a perspective view of a radiator according to the present invention.
【図３】本考案における放熱体の下体の平面図である。FIG. 3 is a plan view of a lower body of a radiator according to the present invention.
【図４】本考案における放熱体の断面図である。FIG. 4 is a sectional view of a radiator according to the present invention.
４はメンブレン ７は貯水槽 ８は冷却タンク １０は冷熱素子 １１は放熱体 １２は上体 １３は下体 １５は冷媒流入孔 １６は冷媒流通路 １７は冷媒流出孔 １９は流量調節弁 ２０は第２のソレノイドバルブ ２１は退水管路 ２２はバイパス管路 ３０は冷媒通路 ＷO は原水 Ｗ1 は浄化廃水 Ｗ2 は冷媒4 is a membrane 7 is a water tank 8 is a cooling tank 10 is a cooling / heating element 11 is a radiator 12 is an upper body 13 is a lower body 15 is a refrigerant inflow hole 16 is a refrigerant flow passage 17 is a refrigerant outflow hole 19 is a flow control valve 20 is a second Solenoid valve 21 is a drainage pipe 22 is a bypass pipe 30 is a refrigerant passage W O is raw water W 1 is purified wastewater W 2 is a refrigerant
Claims (5)
れた浄水系統に原水（ＷO ）を供給して同原水（ＷO ）
を浄化し、その浄化水を貯水槽（７）に貯水し、貯水槽
（７）に冷却タンク（８）を連結し、冷却タンク（８）
内の浄化水をそれに取付けた冷熱素子（１０）により冷
却するようにした浄水冷却装置において、前記冷熱素子
（１０）に放熱体（１１）を設け、その放熱体（１１）
にメンブレン（４）から出る浄化廃水（Ｗ1 ）と前記原
水（ＷO ）のいずれか一方又はその両方を冷媒（Ｗ2 ）
として流す冷媒通路（３０）を設けたことを特徴とする
浄水冷却装置における冷熱素子の冷却装置。1. A membrane (4) and the other purifier raw water purification system provided that (W O) the raw water supply (W O)
Water, and the purified water is stored in the water tank (7), the cooling tank (8) is connected to the water tank (7), and the cooling tank (8) is connected.
In a purified water cooling device in which purified water in the inside is cooled by a cooling / heating element (10) attached thereto, a radiator (11) is provided on the cooling / heating element (10), and the radiator (11) is provided.
Either one or both of the purified wastewater (W 1 ) discharged from the membrane (4) and the raw water (W O ) as a refrigerant (W 2 )
A cooling device for a cooling / heating element in a purified water cooling device, characterized in that a cooling medium passage (30) is provided as a cooling medium.
３）とからなり、下体（１３）に冷媒（Ｗ2 ）を流す冷
媒通路（３０）が形成され、冷媒通路（３０）は外部か
ら冷媒（Ｗ2 ）が流れ込む冷媒流入孔（１５）が形成さ
れ、その外周に冷媒流入孔（１５）から流出する冷媒
（Ｗ2 ）が流れる冷媒流通路（１６）が形成され、冷媒
流通路（１６）の末端にそれから流れ込む冷媒（Ｗ2 ）
を下体（１３）の外部に流出する冷媒流出孔（１７）が
形成されてなることを特徴とする請求項１記載の浄水冷
却装置における冷熱素子の冷却装置。2. A radiator (11) comprises an upper body (12) and a lower body (1).
3), a refrigerant passage (30) for flowing the refrigerant (W 2 ) is formed in the lower body (13), and the refrigerant passage (30) is formed with a refrigerant inflow hole (15) into which the refrigerant (W 2 ) flows from the outside. is, refrigerant flowing from the refrigerant inlet (15) (W 2) of the refrigerant flow passage to flow (16) is formed on the outer periphery, a refrigerant flow passage refrigerant flowing therefrom to the end of (16) (W 2)
The cooling device of the cooling / heating element in the purified water cooling device according to claim 1, characterized in that a refrigerant outflow hole (17) is formed to flow out of the lower body (13).
化廃水（Ｗ1 ）が流れる退水管路（２１）と、原水（Ｗ
O ）を供給するバイパス管路（２２）に接続されてなる
ことを特徴とする請求項１又は請求項２記載の浄水冷却
装置における冷熱素子の冷却装置。3. A water discharge conduit (21) through which the purified wastewater (W 1 ) of the membrane (4) flows through the refrigerant passage (30) and the raw water (W).
The cooling device of the cooling / heating element in the purified water cooling device according to claim 1 or 2, wherein the cooling device is connected to a bypass line (22) for supplying O 2 ).
量を調節する流量調節弁（１９）が設けられてなること
を特徴とする請求項３記載の浄水冷却装置における冷熱
素子の冷却装置。4. The cooling / heating element in the purified water cooling device according to claim 3, wherein the water discharge conduit (21) is provided with a flow rate control valve (19) for controlling the flow rate of the purified wastewater (W 1 ). Cooling system.
ブ（２０）を設置し、同ソレノイドバルブ（２０）は貯
水槽（７）内に浄化水が満水になって浄水系統への原水
（ＷO ）の供給が遮断されたときに開いて、原水（Ｗ
O ）が放熱体（１１）に供給されるようにすることを特
徴とする請求項３又は請求項４記載の浄水冷却装置にお
ける冷熱素子の冷却装置。5. A solenoid valve (20) is installed on the bypass line (22), and the solenoid valve (20) is filled with purified water in a water tank (7) and the raw water (W Open when the supply of O 2 ) is cut off and the raw water (W
O ) is supplied to a radiator (11), The cooling device of the cooling / heating element in the purified water cooling device of Claim 3 or Claim 4 characterized by the above-mentioned.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP1995010713U JP3022653U (en) | 1995-09-13 | 1995-09-13 | Cooling device for cooling / heating element in purified water cooling device |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP1995010713U JP3022653U (en) | 1995-09-13 | 1995-09-13 | Cooling device for cooling / heating element in purified water cooling device |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| JP3022653U true JP3022653U (en) | 1996-03-26 |
Family
ID=43157952
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| JP1995010713U Expired - Lifetime JP3022653U (en) | 1995-09-13 | 1995-09-13 | Cooling device for cooling / heating element in purified water cooling device |
Country Status (1)
| Country | Link |
|---|---|
| JP (1) | JP3022653U (en) |
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JP2012073018A (en) * | 2010-09-29 | 2012-04-12 | Ind Technol Res Inst | Thermoelectric drinking apparatus, and thermoelectric heat pump |
-
1995
- 1995-09-13 JP JP1995010713U patent/JP3022653U/en not_active Expired - Lifetime
Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JP2012073018A (en) * | 2010-09-29 | 2012-04-12 | Ind Technol Res Inst | Thermoelectric drinking apparatus, and thermoelectric heat pump |
| US9310110B2 (en) | 2010-09-29 | 2016-04-12 | Industrial Technology Research Institute | Thermoelectric drinking apparatus and thermoelectric heat pump |
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