JPH0777337A - Hot water supply control device - Google Patents
Hot water supply control deviceInfo
- Publication number
- JPH0777337A JPH0777337A JP22097593A JP22097593A JPH0777337A JP H0777337 A JPH0777337 A JP H0777337A JP 22097593 A JP22097593 A JP 22097593A JP 22097593 A JP22097593 A JP 22097593A JP H0777337 A JPH0777337 A JP H0777337A
- Authority
- JP
- Japan
- Prior art keywords
- hot water
- water
- passage
- temperature
- water supply
- 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
Links
Landscapes
- Domestic Hot-Water Supply Systems And Details Of Heating Systems (AREA)
Abstract
Description
【０００１】[0001]
【産業上の利用分野】本発明は給湯熱源機から遠く離れ
た端末水栓部において使い勝手を向上させる給湯制御装
置に関するものである。BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a hot water supply control device for improving usability in a terminal faucet part far from a hot water heat source device.
【０００２】[0002]
【従来の技術】給湯熱源機から遠く離れた給湯口では、
途中の配管経路が長いために出湯開始直後には配管中の
冷水が出てくるばかりではなく、配管に熱が奪われるた
め所定温度の湯が出てくるまでに時間がかかるという実
使用上の不便さがある。このような不都合や不便さを解
消するための手段としては、例えば４図（実開昭６０−
２５９８４０号公報）に示すようなものがあった。2. Description of the Related Art At a hot water inlet far away from a hot water source,
Due to the long piping path on the way, not only cold water in the piping comes out immediately after tapping, but also heat is taken by the piping, so it takes time to come out of hot water of a certain temperature. There is inconvenience. As means for eliminating such inconvenience and inconvenience, for example, FIG.
259840).
【０００３】４図において、主給湯熱源機１の給湯配管
２の下流端には端末給湯器３が直列接続されている。前
記端末給湯器３は加熱装置である電気ヒーター４で加熱
される小容量の貯湯槽５を有しており、高温水を貯留し
ている。この貯湯槽５へ流入する入口流路６は給湯配管
２に接続されており、高温水は出口流路７から出湯され
る。入口流路６と並列の分岐流路８と出口流路７はミキ
シングバルブ９で混合されて出湯路１０へ流出するもの
で、その混合比率は温度設定手段であるつまみ１１で定
められる。以上の構成により、ミキシングバルブ９のつ
まみ１１を操作して、混合水栓１２の湯栓を開くと、給
湯配管２から分岐流路８を通る冷水と出口流路７を流れ
る高温水が適度に混合して出湯開始直後から温かい湯が
得られるというものである。In FIG. 4, a terminal water heater 3 is connected in series at the downstream end of the hot water supply pipe 2 of the main hot water supply heat source unit 1. The terminal water heater 3 has a small-capacity hot water storage tank 5 that is heated by an electric heater 4 that is a heating device, and stores high-temperature water. An inlet passage 6 flowing into the hot water storage tank 5 is connected to the hot water supply pipe 2, and hot water is discharged from the outlet passage 7. The branch flow passage 8 and the outlet flow passage 7 which are parallel to the inlet flow passage 6 are mixed by the mixing valve 9 and flow out to the hot water discharge passage 10, and the mixing ratio thereof is determined by the knob 11 which is a temperature setting means. With the above configuration, when the knob 11 of the mixing valve 9 is operated to open the tap of the mixing tap 12, the cold water passing through the branch passage 8 from the hot water supply pipe 2 and the high temperature water flowing through the outlet passage 7 are appropriately placed. It is said that hot water can be obtained immediately after mixing and starting hot water.
【０００４】[0004]
【発明が解決しようとする課題】しかしながら上記のよ
うな従来の構成では、次のような課題を有していた。However, the conventional structure as described above has the following problems.
【０００５】（１）出湯開始直後、給湯配管から流れ込
む冷水に貯湯槽から供給される高温水を温度調節つまみ
で設定した流量割合で混合して吐出するため、混合水栓
の湯栓には出湯開始直後からある温度の温水が供給され
るが、最終的な吐出温度を決定するには主給湯熱源機の
温度設定と端末給湯器の温度調節つまみおよび混合水栓
の流量比調節が必要となり、必ずしも使い勝手がよいと
はいえない。(1) Immediately after the hot water is started, the hot water supplied from the hot water storage tank is mixed with the cold water flowing from the hot water supply pipe at the flow rate set by the temperature control knob, and the mixed hot water is discharged. Hot water of a certain temperature is supplied immediately after the start, but to determine the final discharge temperature, it is necessary to set the temperature of the main hot water source heat source device and the temperature control knob of the terminal water heater and the flow rate ratio of the mixed faucet. It is not always easy to use.
【０００６】（２）給湯水栓には混合タイプを用いる必
要性があり、またその近傍に温度調節つまみを設置する
ことになるため、装置が大がかりとなり、配管施工や美
観の点からも好ましくない。(2) Since it is necessary to use a mixed type for the hot and cold water faucet and a temperature control knob is installed in the vicinity thereof, the apparatus becomes large in scale, which is not preferable from the viewpoint of piping construction and aesthetics. .
【０００７】本発明は上記従来の課題を解決するもの
で、端末給湯ユニットを設けるだけで、出湯開始直後か
ら安定した温度の出湯が可能で、また配管および電気配
線の施工が容易でしかも給湯水栓近傍が美観的にすっき
りできる給湯制御装置を提供することを第１の目的とし
ている。The present invention solves the above-mentioned conventional problems. Only by providing a terminal hot water supply unit, hot water can be discharged at a stable temperature immediately after the start of hot water discharge, and piping and electric wiring can be easily constructed and hot water supply A first object is to provide a hot water supply control device in which the vicinity of the plug can be aesthetically refreshed.
【０００８】本発明の第２の目的は温調機能を持つ端末
給湯ユニットにおいて、小型かつ少電力で設置場所を選
ばず、配管および電気配線の施工が容易でしかも給湯水
栓近傍が美観的にすっきりできる給湯制御装置を提供す
ることにある。A second object of the present invention is to provide a terminal hot water supply unit having a temperature control function, which is small in size, uses a small amount of electric power, can be installed in any place, and can be easily installed with pipes and electric wiring and has an aesthetic appearance near the hot water supply tap It is to provide a hot water supply control device that can be refreshed.
【０００９】[0009]
【課題を解決するための手段】本発明は上記の第１の目
的を達成するために給湯制御装置は、加熱装置と入口流
路および出口流路を有する貯湯槽と、前記入口流路から
分岐し前記貯湯槽を通らずに前記出口流路に合流するバ
イパス流路と、前記出口流路と前記バイパス流路が接続
合流してなる１次混合流路と、冷水流入路から供給され
る冷水と前記１次混合流路から供給される温水の混合比
を電気的に可変する混合比可変手段と、前記混合比可変
手段の下流に設けられた２次混合流路と、前記２次混合
流路に設けられた温度検出器と、設定された出湯温度と
前記温度検出器によって検出された出湯温度を比較して
前記混合比可変手段へ信号を送るとともに前記加熱装置
の温度制御も行う制御器とから構成される端末給湯器
と、給湯水栓近傍に設置され前記端末給湯器の出湯温度
設定を行う設定器からなる給湯端末ユニットを主給湯熱
源機の下流に直列接続して構成するものである。In order to achieve the first object of the present invention, a hot water supply control device includes a hot water tank having a heating device, an inlet passage and an outlet passage, and a branch from the inlet passage. A bypass flow passage that joins the outlet flow passage without passing through the hot water storage tank, a primary mixing flow passage formed by connecting and joining the outlet flow passage and the bypass flow passage, and cold water supplied from a cold water inflow passage And a mixing ratio varying means for electrically varying the mixing ratio of the hot water supplied from the primary mixing passage, a secondary mixing passage provided downstream of the mixing ratio varying means, and the secondary mixing flow. A temperature detector provided in the passage, a controller for comparing the set hot water temperature with the hot water temperature detected by the temperature detector, sending a signal to the mixing ratio varying means, and also controlling the temperature of the heating device. A terminal water heater composed of and And it constitutes in series connected to the hot-water supply terminal unit comprising setter is location performs tapping temperature settings of the terminal water heater downstream of the main hot water supply heat source apparatus.
【００１０】また第２の目的を達成するために給湯制御
装置は、加熱装置と入口流路および出口流路を有する貯
湯槽と、前記入口流路から分岐し前記貯湯槽を通らずに
前記出口流路に合流するバイパス流路と、前記出口流路
と前記バイパス流路が接続合流してなる１次混合流路
と、前記１次混合流路および冷水流入路と湯側流出路お
よび水側流出路が接続されるシリンダ流路と、前記シリ
ンダ流路に設けられた湯側弁座および湯側弁体と水側弁
座および水側弁体と、前記湯側弁体に弁軸を介して連結
された湯側圧力ピストンと、前記水側弁体に弁軸を介し
て連結された水側圧力ピストンと、湯側弁体および水側
弁体に連結されシリンダ流路を湯側と水側に仕切る仕切
りピストンと、前記冷水流入路の水圧を前記湯側圧力ピ
ストンへ導入する湯側パイロット圧導入路と、前記冷水
流入路の水圧を前記水側圧力ピストンへ導入する水側パ
イロット圧導入路と、前記湯側パイロット圧導入路およ
び前記水側パイロット圧導入路と前記冷水流入路の導通
面積を加減するパイロット圧可変手段と、前記湯側流出
路と前記水側流出路が接続合流してなる２次混合流路
と、前記２次混合流路上かつ前記混合比可変手段近傍に
設けられた温度検出器と、設定された出湯温度と前記温
度検出器によって検出された出湯温度を比較して前記混
合比可変手段へ信号を送るとともに前記加熱装置の温度
制御も行う制御器とから構成される端末給湯器と、給湯
水栓近傍に設置され前記端末給湯器の出湯温度設定を行
う設定器からなる給湯端末ユニットを主給湯熱源機の主
給湯熱源機の下流に直列接続して構成するものである。In order to achieve the second object, the hot water supply control device includes a hot water storage tank having a heating device and an inlet flow path and an outlet flow path, and the outlet branching from the inlet flow path without passing through the hot water storage tank. A bypass flow passage that joins the flow passage, a primary mixing flow passage formed by connecting and joining the outlet flow passage and the bypass flow passage, the primary mixing flow passage, the cold water inflow passage, the hot water outlet passage, and the water side A cylinder passage to which the outflow passage is connected, a hot water valve seat and a hot water valve body, a water valve seat and a water valve body provided in the cylinder flow path, and a valve shaft to the hot water valve body. Water-side pressure piston connected to the water-side valve body via a valve shaft, a water-side pressure piston connected to the water-side valve body and the water-side valve body, and a cylinder flow path to the water side and the water side. Partition piston for partitioning to the side and hot water for introducing the water pressure of the cold water inflow path to the hot water side pressure piston Pilot pressure introducing passage, water side pilot pressure introducing passage for introducing water pressure of the cold water inflow passage to the water side pressure piston, hot water side pilot pressure introducing passage, water side pilot pressure introducing passage and cold water inflow passage Pilot pressure varying means for adjusting the conduction area, a secondary mixing channel formed by connecting and joining the hot water side outlet channel and the water side outlet channel, and provided on the secondary mixing channel and in the vicinity of the mixing ratio varying means. And a controller for performing a temperature control of the heating device as well as sending a signal to the mixing ratio varying means by comparing the set hot water temperature with the hot water temperature detected by the temperature detector. A hot water supply terminal unit consisting of a terminal hot water supply device and a setting device installed near the hot water faucet for setting the hot water discharge temperature of the terminal hot water supply device is connected in series downstream of the main hot water supply heat source device of the main hot water supply heat source device. It is intended.
【００１１】[0011]
【作用】本発明の給湯制御装置は上記した構成によっ
て、出湯開始直後には給湯配管中に滞留していた冷水が
貯湯槽の入口流路より貯湯槽内に流れ込む。その結果、
貯湯槽の出口流路から貯留されていた高温水が流出し、
バイパス流路を経由した冷水と１次混合流路において合
流する。この１次混合流路を流れる温水は混合比可変手
段に至り、給湯水栓近傍に設置された設定器で要求され
ている湯温と温度検出器で検出された出湯温度が一致す
るように制御器が混合比可変手段を制御することによっ
て冷水との混合比が調節され、適温の温水が給湯水栓に
供給される。出湯開始後しばらく時間が経過し、主給湯
熱源器からの温水が給湯配管に供給されるようになると
１次混合流路を流れる温水の温度が上昇してくるが、混
合比可変手段は設定温度になるように温水と冷水の混合
比を可変するので、給湯水栓からは常に設定通りの安定
した温度の温水が供給される。さらに、端末給湯器の構
成に、混合比可変手段と混合比可変手段および加熱装置
を駆動する制御器とが含まれる構成であるため、配管施
工が容易でしかも給湯水栓近傍をすっきりとしたものに
できる。With the hot water supply control apparatus of the present invention having the above-described structure, the cold water that has accumulated in the hot water supply pipe immediately after the start of hot water flows into the hot water storage tank through the inlet passage of the hot water storage tank. as a result,
The hot water stored in the outlet passage of the hot water tank flows out,
It merges with the cold water that has passed through the bypass channel in the primary mixing channel. The hot water flowing through the primary mixing flow path reaches the mixing ratio varying means and is controlled so that the hot water temperature required by the setting device installed near the hot water faucet and the hot water temperature detected by the temperature detector match. The mixing ratio with the cold water is adjusted by the device controlling the mixing ratio varying means, and hot water of an appropriate temperature is supplied to the hot water supply faucet. When hot water from the main hot water supply heat source device is supplied to the hot water supply pipe after a while from the start of tapping, the temperature of the hot water flowing through the primary mixing flow path rises. Since the mixing ratio of the hot water and the cold water is changed so that the hot water is constantly supplied from the hot water faucet, the hot water has a stable temperature as set. Furthermore, since the configuration of the terminal water heater includes the mixing ratio varying means and the controller for driving the mixing ratio varying means and the heating device, the piping construction is easy and the vicinity of the hot water faucet is clean. You can
【００１２】また、本発明の給湯制御装置は前記構成に
より、混合比可変手段はパイロット圧可変手段を制御器
からの信号で駆動することにより、湯側圧力ピストンお
よび水側圧力ピストンに作用する圧力が変化する。それ
にともなって、圧力バランス作用により、連結してなる
湯側弁体と仕切りピストンおよび水側弁体を移動させ、
冷水と温水の混合比を可変するように作用する。ここ
で、湯側および水側パイロット圧導入路の流路面積は、
湯側弁体および水側弁体や仕切りピストンの受圧面積と
比較して桁違いに小さいため、パイロット圧可変手段に
必要な駆動力もそれにともなって桁違いに小さくでき
る。According to the hot water supply control apparatus of the present invention, the mixing ratio varying means drives the pilot pressure varying means by the signal from the controller, so that the pressure acting on the hot water side pressure piston and the water side pressure piston is controlled. Changes. Along with that, due to the pressure balance action, the hot water valve element, the partition piston and the water valve element that are connected are moved,
It works to change the mixing ratio of cold water and hot water. Here, the flow passage area of the hot water side and the water side pilot pressure introduction path is
Since the pressure receiving areas of the hot water valve body, the water valve body, and the partition piston are orders of magnitude smaller, the driving force required for the pilot pressure varying means can be orders of magnitude smaller accordingly.
【００１３】[0013]
【実施例】以下、本発明の一実施例を図面を用いて説明
する。図１において主給湯熱源器１３には給湯配管１４
が接続されており、給湯水栓１５での出湯開始とともに
給湯配管１４内の冷水が端末給湯器１６に至る。端末給
湯器１６は加熱装置１７と入口流路１８および出口流路
１９を有する貯湯槽２０とバイパス流路２１、１次混合
流路２２、冷水流入路２３、混合比可変手段２４、２次
混合流路２５、温度検出器２６、制御器２７とが一体構
成し、設定器２８と併せて端末給湯ユニット２９を構成
している。給湯配管１４から端末給湯器１６へ供給され
た冷水は入口流路１８を介して貯湯槽２０へ流れ込み、
またそれと並行して入口流路１８から分岐して設けられ
ているバイパス流路２１へ流れ込む。ここで冷水が貯湯
槽２０へ流れ込むことによって貯湯槽２０内に加熱装置
１７で加熱貯留されていた高温水が出口流路１９を介し
て１次混合流路２２へ押し出され、バイパス流路２１を
介して１次混合流路２２へ流れ込んだ冷水と混合され
る。さらにこの冷水と高温水が混合した温水は混合比可
変手段２４に至り、冷水流入路２３から供給された冷水
とともにその流量比が調節され、２次混合流路２５にお
いて合流する。ここで混合された温水は温度検出器２６
に至りその温度が検出される。検出された出湯温度は制
御器２７に取り込まれ、設定器２８での設定信号に従っ
て制御器２７を経て混合比可変手段２４が制御される。
また制御器２７は貯湯槽２０内に貯留される高温水の温
度を保つため、加熱装置１７の制御も行う構成としてあ
る。２次混合流路２５を経た温水は給湯水栓１５に至り
吐出される。DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS An embodiment of the present invention will be described below with reference to the drawings. In FIG. 1, a hot water supply pipe 14 is provided in the main hot water supply heat source device 13.
Is connected, and the cold water in the hot water supply pipe 14 reaches the terminal water heater 16 when the hot water supply tap 15 starts hot water. The terminal water heater 16 includes a heating device 17, a hot water tank 20 having an inlet passage 18 and an outlet passage 19, a bypass passage 21, a primary mixing passage 22, a cold water inflow passage 23, a mixing ratio varying means 24, and a secondary mixing. The flow path 25, the temperature detector 26, and the controller 27 are integrally configured, and together with the setting device 28, a terminal hot water supply unit 29 is configured. The cold water supplied from the hot water supply pipe 14 to the terminal water heater 16 flows into the hot water storage tank 20 through the inlet passage 18,
Further, in parallel with this, it flows into the bypass flow passage 21 provided by branching from the inlet flow passage 18. Here, when the cold water flows into the hot water storage tank 20, the high temperature water that has been heated and stored in the hot water storage tank 20 by the heating device 17 is pushed out to the primary mixing flow path 22 through the outlet flow path 19 and the bypass flow path 21. It is mixed with the cold water that has flowed into the primary mixing flow path 22 through. Further, the hot water obtained by mixing the cold water and the high-temperature water reaches the mixing ratio varying means 24, and the flow ratio of the cold water supplied from the cold water inflow path 23 is adjusted, and the hot water joins the secondary mixing flow path 25. The hot water mixed here is the temperature detector 26.
And the temperature is detected. The detected hot water temperature is taken in by the controller 27, and the mixing ratio varying means 24 is controlled via the controller 27 according to the setting signal from the setting device 28.
The controller 27 also controls the heating device 17 in order to maintain the temperature of the high temperature water stored in the hot water storage tank 20. The hot water that has passed through the secondary mixing flow path 25 reaches the hot water supply faucet 15 and is discharged.
【００１４】次に、混合比可変手段２４について詳述す
る。混合比可変手段２４において１次混合流路２２およ
び冷水流入路２３から供給される温水と冷水は混合弁体
３０に至る。混合弁体３０は湯側弁体３１と水側弁体３
２と、これに弁軸３３を介して連結されシリンダ流路３
４を湯側と水側に仕切る仕切りピストン３５と、湯側弁
体３１に連結された湯側圧力ピストン３６と、水側弁体
３２に連結された水側圧力ピストン３７から成ってい
る。湯側弁体３１と水側弁体３２はそれぞれシリンダ流
路３４に設けられた湯側弁座３８と水側弁座３９にそれ
ぞれ臨んで設けられており、温水と冷水の流量比を反比
例的に変化させるように構成されている。さらに混合比
可変手段２４には、冷水流入路２３の水圧を湯側圧力ピ
ストン３６へ導く湯側パイロット圧導入路４０および冷
水流入路２３の水圧を水側圧力ピストン３７へ導く水側
パイロット圧導入路４１と湯側パイロット圧導入路４０
および水側パイロット圧導入路４１と冷水流入路２３の
導通面積を加減するパイロット圧可変手段４２が設けら
れている。Next, the mixing ratio varying means 24 will be described in detail. The warm water and the cold water supplied from the primary mixing flow passage 22 and the cold water inflow passage 23 in the mixing ratio varying means 24 reach the mixing valve body 30. The mixing valve body 30 is composed of the hot water side valve body 31 and the water side valve body 3.
2 and a cylinder flow path 3 connected to this through a valve shaft 33.
It comprises a partition piston 35 for partitioning 4 into the hot water side and the hot water side, a hot water pressure piston 36 connected to the hot water valve body 31, and a water side pressure piston 37 connected to the hot water valve body 32. The hot-water valve body 31 and the hot-water valve body 32 are provided so as to face the hot-water valve seat 38 and the hot-water valve seat 39, respectively, which are provided in the cylinder flow path 34, respectively, and the flow ratio of hot water and cold water is inversely proportional. It is configured to change to. Further, in the mixing ratio varying means 24, a hot water side pilot pressure introducing path 40 for guiding the water pressure of the cold water inflow path 23 to the hot water side pressure piston 36 and a water side pilot pressure for guiding the water pressure of the cold water inflow path 23 to the water side pressure piston 37. Path 41 and hot water pilot pressure introduction path 40
A pilot pressure varying means 42 for adjusting the conduction area between the water side pilot pressure introducing passage 41 and the cold water inflow passage 23 is provided.
【００１５】次に、パイロット圧可変手段４２について
さらに詳述する。パイロット圧可変手段４２は、冷水流
入路２３の水圧を湯側圧力ピストン３６および水側圧力
ピストン３７へ導入する湯側パイロット圧導入路４０お
よび水側パイロット圧導入路４１とに交又するように１
本のパイロット弁軸４３が設けてあり、かつパイロット
弁軸４３には図２に示すように円形断面の軸表面に切り
欠き流路４４およびＯリング溝４５が形成されており、
そのパイロット弁軸４３を回転させるステッピングモー
タ４６を設けた構成である。したがってパイロット弁軸
４３の回転角度位置を制御器２７の指示にてステッピン
グモータ４６を制御することによって、冷水流入路２３
の水圧を湯側圧力ピストン３６に導いたり、水側圧力ピ
ストン３７に導いたりの切替えや、湯側パイロット圧導
入路４０および水側パイロット圧導入路４１と冷水流入
路２３の導通面積の可変ができる構成である。Next, the pilot pressure varying means 42 will be described in more detail. The pilot pressure varying means 42 is connected to a hot water side pilot pressure introducing path 40 and a hot water side pilot pressure introducing path 41 for introducing the water pressure of the cold water inflow path 23 to the hot water side pressure piston 36 and the water side pressure piston 37. 1
This pilot valve shaft 43 is provided, and the pilot valve shaft 43 has a cutout passage 44 and an O-ring groove 45 formed on the shaft surface of a circular cross section as shown in FIG.
A stepping motor 46 for rotating the pilot valve shaft 43 is provided. Therefore, the rotation angle position of the pilot valve shaft 43 is controlled by the controller 27 to control the stepping motor 46, whereby the cold water inflow passage 23
Of the water pressure of the hot water side pressure piston 36 or the water side pressure piston 37 is switched, and the conduction area of the hot water side pilot pressure introduction path 40, the water side pilot pressure introduction path 41 and the cold water inflow path 23 can be changed. This is a possible configuration.
【００１６】次に上記実施例の作用、動作について説明
する。まず、給湯水栓１５近傍に設置された設定器２８
で湯温を設定し、給湯水栓１５を開いた状態を想定す
る。給湯水栓１５を開くことにより、まず給湯配管１４
に滞留していた冷水が端末給湯器１６へ流入する。端末
給湯器１６へ供給された冷水は入口流路１８を介して貯
湯槽２０へ流れ込み、貯湯槽２０内に加熱装置１７で加
熱貯留されていた高温水が出口流路１９を介して１次混
合流路２２へ押し出される。また一方ではそれと並行し
て入口流路１８から分岐して設けられているバイパス流
路２１へ流れ込んだ冷水が１次混合流路２２へ流れ込
み、先の貯湯槽２０から供給された高温水と約１対１の
割合で混合される。さらにこの冷水と高温水が混合した
温水と冷水流入路２３から供給された冷水はそれぞれ混
合比可変手段２４を経て２次混合流路２５において合流
した後、温度検出器２６に至り出湯温度が検出される。
この温度検出器２６で検出された出湯温度は制御器２７
に取り込まれ、設定器２８で設定された温度と比較さ
れ、温度偏差をなくすように制御器２７が混合比可変手
段２４を制御する。Next, the operation and operation of the above embodiment will be described. First, the setting device 28 installed near the hot water faucet 15
It is assumed that the hot water temperature is set by and the hot water tap 15 is opened. By opening the hot water supply faucet 15, first the hot water supply pipe 14
The cold water staying at the terminal flows into the terminal water heater 16. The cold water supplied to the terminal water heater 16 flows into the hot water storage tank 20 through the inlet flow passage 18, and the high temperature water heated and stored in the hot water storage tank 20 by the heating device 17 is primarily mixed through the outlet flow passage 19. It is extruded into the flow path 22. On the other hand, in parallel with this, the cold water that has flown into the bypass flow channel 21 that is provided by branching from the inlet flow channel 18 flows into the primary mixing flow channel 22 and is approximately the same as the high temperature water supplied from the hot water storage tank 20. It is mixed at a ratio of 1: 1. Further, the hot water obtained by mixing the cold water and the high-temperature water and the cold water supplied from the cold water inflow passage 23 respectively merge in the secondary mixing passage 25 through the mixing ratio varying means 24, and then reach the temperature detector 26 to detect the hot water outlet temperature. To be done.
The hot water temperature detected by the temperature detector 26 is controlled by the controller 27.
And the temperature is compared with the temperature set by the setting device 28, and the controller 27 controls the mixing ratio varying means 24 so as to eliminate the temperature deviation.
【００１７】出湯開始後しばらく時間が経過し、主給湯
熱源器１３からの温水が給湯配管１４に供給されるよう
になると１次混合流路２２を流れる温水の温度が上昇し
てくるが、混合比可変手段２４は設定温度になるように
温水と冷水の混合比を可変するので、給湯水栓１５から
は常に設定通りの安定した温度の温水が供給される。つ
まり、設定器２８の設定を行うだけで、安定した温度の
温水が出湯開始直後から得られる。また、制御器２７は
混合比可変手段２４の駆動だけでなく、貯湯槽２０内に
貯留されている高温水の温度を保つよう加熱装置１７の
制御も行っており、さらには設定器２８は端末給湯器１
６に電気配線のみで接続されているので、配線および配
管施工が容易で、混合水栓を設ける必要性もなく給湯水
栓１５まわりを美観的にすっきりとした構成にすること
ができる。When the hot water from the main hot water supply heat source device 13 is supplied to the hot water supply pipe 14 some time after the start of hot water discharge, the temperature of the hot water flowing through the primary mixing flow path 22 rises, but the mixing Since the ratio varying means 24 varies the mixing ratio of the hot water and the cold water so as to reach the set temperature, the hot water tap 15 always supplies hot water having a stable temperature as set. That is, only by setting the setting device 28, hot water having a stable temperature can be obtained immediately after the start of hot water discharge. Further, the controller 27 not only drives the mixing ratio varying means 24, but also controls the heating device 17 so as to maintain the temperature of the high-temperature water stored in the hot water storage tank 20, and further, the setting device 28 controls the setting device 28. Water heater 1
Since it is connected to 6 only by electric wiring, wiring and piping construction is easy, and there is no need to provide a mixed water faucet, and the surroundings of the hot water supply faucet 15 can be made aesthetically clean.
【００１８】例えば、従来の即湯機能を有する給湯制御
装置と電子混合栓を組み合わせて使用する場合を考える
と、配管に関しては給湯制御装置と電子混合栓の配管お
よび電子混合栓と給湯水栓の配管施工が必要となる。さ
らに電気配線を考えると、給湯制御装置と電子混合栓の
それぞれに電源部および電気配線工事が必要となり、上
記実施例の給湯制御装置の施工性が良いことは明らかで
ある。また、ワックスタイプの混合水栓を給湯水栓とし
て採用した場合を考えても、配管施工の工数が増えたう
えに混合水栓が大きいため、給湯水栓まわりが美観的に
すっきりするとは言い難い。ここで、設定器２８と端末
給湯器１６をワイヤレス構成にするとさらに施工性が向
上する。Considering, for example, the case where a conventional hot water supply controller having an immediate hot water function and an electronic mixing tap are used in combination, the pipes of the hot water supply control device and the electronic mixing tap, and the electronic mixing tap and the hot water tap are connected. Piping is required. Further, considering the electric wiring, it is obvious that the hot water supply control device and the electronic mixing tap require a power source section and electric wiring work, respectively, and the workability of the hot water supply control device of the above embodiment is good. Even if a wax-type mixed faucet is adopted as a hot water supply faucet, it is hard to say that the area around the hot water supply faucet is aesthetically neat because the number of man-hours for piping work is increased and the mixed water faucet is large. . Here, if the setting device 28 and the terminal water heater 16 are wirelessly configured, the workability is further improved.
【００１９】また、上記実施例の給湯制御装置は前記構
成により、パイロット圧可変手段４２へ制御器２７から
信号を送ることによって冷水流入路２３の水圧を湯側圧
力ピストン３６へ導いたり水側圧力ピストン３７へ導い
たりの切り替えや、湯側パイロット圧導入路４０および
水側パイロット圧導入路４１と冷水流入路２３の導通面
積を加減することができ、結果として混合弁体３０を移
動させ温水と冷水の流量比を可変する事ができる。つま
り２次混合流路２５から供給された温水および冷水流入
路２３から供給された冷水がそれぞれ混合弁体３０に到
達すると湯側弁体３１、水側弁体３２、湯側圧力ピスト
ン３６、水側圧力ピストン３７、仕切りピストン３５に
はそれぞれ圧力がかかり、力のバランス作用によってあ
る流量比を保つように作用する。ここで制御器２７から
信号を送り、パイロット圧可変手段４２を駆動し、湯側
パイロット圧導入路４０および水側パイロット圧導入路
４１と冷水流入路２３の導通面積を可変すると、湯側圧
力ピストン３６および水側圧力ピストン３７に作用する
圧力に変化が生じ、混合弁体３０は力のバランスが保て
る位置まで移動する。その結果、温水と冷水の流量比が
可変されるわけである。Further, the hot water supply control apparatus of the above-mentioned embodiment has the above-mentioned structure, and by sending a signal from the controller 27 to the pilot pressure varying means 42, the water pressure in the cold water inflow path 23 is guided to the hot water side pressure piston 36 or the water side pressure. It is possible to switch between guiding to the piston 37 and to adjust the conduction area between the hot water pilot pressure introducing passage 40 and the water pilot pressure introducing passage 41 and the cold water inflow passage 23. As a result, the mixing valve body 30 is moved to generate hot water. The flow rate of cold water can be changed. That is, when the hot water supplied from the secondary mixing flow path 25 and the cold water supplied from the cold water inflow path 23 reach the mixing valve body 30, respectively, the hot water valve body 31, the water valve body 32, the hot water pressure piston 36, the water Pressure is applied to each of the side pressure piston 37 and the partition piston 35, and acts so as to maintain a certain flow rate ratio by the force balance action. Here, when a signal is sent from the controller 27 to drive the pilot pressure varying means 42 and the conduction areas of the hot water pilot pressure introducing passage 40 and the water pilot pressure introducing passage 41 and the cold water inflow passage 23 are varied, the hot water pressure piston The pressure acting on 36 and the water side pressure piston 37 changes, and the mixing valve body 30 moves to a position where the force balance can be maintained. As a result, the flow ratio of hot water and cold water is variable.
【００２０】例えば、パイロット圧可変手段４２が冷水
流入路２３と水側パイロット圧導入路４１との連通開度
を増大させ、湯側パイロット圧導入路４０との連通開度
を減少させると、冷水流入路２３から水側パイロット圧
導入路４１へ流れ込む水の量の増大にともなって水側圧
力ピストン３７に作用する圧力も増大し、湯側パイロッ
ト圧導入路４１へ流れ込む水の量の減少にともなって湯
側圧力ピストン３６に作用する圧力も減少する。そのた
め混合弁体３０は水側弁体３２を閉じ、湯側弁体３１を
開く位置で平衡を保ち、温水と冷水の流量比としては冷
水に対して温水を多く混合する状態となる。逆にパイロ
ット圧可変手段４２が冷水流入路２３と湯側パイロット
圧導入路４０との連通開度を増大させ、水側パイロット
圧導入路４１との連通開度を減少させると冷水流入路２
３から湯側パイロット圧導入路４０へ流れ込む水の量の
増大にともなって湯側圧力ピストン３６に作用する圧力
も増大し、水側パイロット圧導入路４１へ流れ込む水の
量の減少にともなって水側圧力ピストン４１に作用する
圧力も減少する。そのため混合弁体３０は湯側弁体３１
を閉じ、水側弁体３２を開く位置で平衡を保ち、温水と
冷水の流量比としては温水に対して冷水を多く混合する
状態となる。For example, if the pilot pressure varying means 42 increases the communication opening degree between the cold water inflow passage 23 and the water side pilot pressure introducing passage 41 and decreases the communication opening degree between the hot water side pilot pressure introducing passage 40, As the amount of water flowing from the inflow passage 23 to the water side pilot pressure introducing passage 41 increases, the pressure acting on the water side pressure piston 37 also increases, and the amount of water flowing into the hot water pilot pressure introducing passage 41 decreases. The pressure acting on the molten metal pressure piston 36 also decreases. Therefore, the mixing valve body 30 maintains the equilibrium at the position where the water side valve body 32 is closed and the hot water side valve body 31 is opened, and the hot water and cold water flow ratio is such that a large amount of hot water is mixed with cold water. On the contrary, when the pilot pressure varying means 42 increases the communication opening degree between the cold water inflow passage 23 and the hot water pilot pressure introducing passage 40 and decreases the communication opening degree with the water side pilot pressure introducing passage 41, the cold water inflow passage 2
3, the pressure acting on the hot water pressure piston 36 increases with an increase in the amount of water flowing into the hot water pilot pressure introducing passage 40, and the amount of water flowing into the hot water pilot pressure introducing passage 41 decreases. The pressure acting on the side pressure piston 41 is also reduced. Therefore, the mixing valve body 30 is the hot side valve body 31.
Is closed and equilibrium is maintained at the position where the water side valve body 32 is opened, and a large amount of cold water is mixed with warm water as a flow ratio of hot water and cold water.
【００２１】このように制御器２７からの信号によりパ
イロット圧可変手段４２を駆動し、冷水流入路２３と湯
側パイロット圧導入路４０および水側パイロット圧導入
路４１の連通開度を可変することにより温水と冷水の流
量比を可変する事ができる。しかも、湯側パイロット圧
導入路４０および水側パイロット圧導入路４１の流路面
積は湯側弁体３１および水側弁体３２や仕切りピストン
３５、湯側圧力ピストン３６および水側圧力ピストン３
７の受圧面積と比較して桁違いに小さいため、パイロッ
ト圧可変手段４２に必要な駆動力もそれにともなって小
さくできる。したがって、パイロット圧可変手段４２は
低消費電力で小型コンパクトにすることができる。つま
りパイロット圧可変手段４２を制御器２７からの信号で
駆動することにより、湯側圧力ピストン３６および水側
圧力ピストン３７に作用する圧力が変化する。それにと
もなって力のバランス作用により混合弁体３０を移動さ
せ、温水と冷水の混合比を可変することができる。しか
も端末給湯器１６を構成している混合比可変手段２４を
低消費電力で小型コンパクトなものにすることが可能と
なる。In this way, the pilot pressure varying means 42 is driven by the signal from the controller 27 to vary the communication opening degree of the cold water inflow passage 23, the hot water pilot pressure introducing passage 40 and the water side pilot pressure introducing passage 41. With this, the flow rate ratio of hot water and cold water can be varied. Moreover, the flow passage areas of the hot water pilot pressure introduction passage 40 and the hot water pilot pressure introduction passage 41 have the hot water valve body 31, the hot water valve body 32, the partition piston 35, the hot water pressure piston 36, and the hot water pressure piston 3 respectively.
Since it is significantly smaller than the pressure receiving area of No. 7, the driving force required for the pilot pressure varying means 42 can be reduced accordingly. Therefore, the pilot pressure varying means 42 can be small in size and compact with low power consumption. That is, by driving the pilot pressure varying means 42 with a signal from the controller 27, the pressure acting on the hot water pressure piston 36 and the hot water pressure piston 37 changes. Along with this, the mixing valve body 30 can be moved by the force balancing action, and the mixing ratio of hot water and cold water can be varied. Moreover, it becomes possible to make the mixing ratio varying means 24 constituting the terminal water heater 16 small in size and compact with low power consumption.
【００２２】また、上記実施例の給湯制御装置は前記構
成により、パイロット弁軸４３の回転角度位置を制御器
２７の指示にてステッピングモータ４６を制御すること
によって、冷水流入路２３の水圧を湯側圧力ピストン３
６に導いたり、水側圧力ピストン３７に導いたりの切替
えや、湯側パイロット圧導入路４０および水側パイロッ
ト圧導入路４１と冷水流入路２３との導通面積の可変が
できる。例えば、パイロット弁軸４３をステッピングモ
ータ４６が転回し、そのパイロット弁軸４３に形成され
た切り欠き流路４４が湯側パイロット圧導入路４０に背
を向け、水側パイロット圧導入路４１にかかり始めその
度合が増して行くと、冷水流入路２３と湯側パイロット
圧導入路４０とは連通を閉ざされ、冷水流入路２３と水
側パイロット圧導入路４１との導通面積が増大して行
く。すなわち冷水流入路２３からの水がパイロット弁軸
４３の切り欠き流路４４を通り、さらに水側パイロット
圧導入路４１を通り、水側圧力ピストン３７に達する流
路開度が、パイロット弁軸４３の切り欠き流路４４が水
側パイロット圧導入路４１の方へ向くにしたがって拡大
するためである。すると湯側弁体３８が湯側弁座３８に
近づく方向に押そうとする湯側圧力ピストン３６への作
用圧は低下し、水側弁体３２が水側弁座３９に近づく方
向に押そうとする水側圧力ピストン３７への作用圧が増
大する。逆にパイロット弁軸４３をステッピングモータ
４６が転回し、そのパイロット弁軸４３に形成された切
り欠き流路４４が水側パイロット圧導入路４１に背を向
け、湯側パイロット圧導入路４０にかかり始めその度合
が増して行くと、冷水流入路２３と水側パイロット圧導
入路４１とは連通を閉ざされ、冷水流入路２３と湯側パ
イロット圧導入路４１の導通面積が増大して行く。する
と水側弁体３２が水側弁座３９に近づく方向に押そうと
する水側圧力ピストン３７への作用圧は低下し、湯側弁
体３１が湯側弁座３８に近づく方向に押そうとする湯側
圧力ピストン３６への作用圧が増大する。以上、力のバ
ランス作用により、混合弁体３０を移動させ、温水と冷
水の流量比を可変するように作用する。このように直径
が約２〜３グ程度の細い１本のパイロット弁軸を回転制
御するだけなので、Ｏリングシールしていてもトルク約
０．１ゴケ程度の極めて小さい回転駆動力があればよ
く、アクチュエータとしては低電力で小型のステッピン
グモータ４６を１個設けるだけで温水と冷水の流量比制
御を可能にすることができる。In the hot water supply control apparatus of the above embodiment, the water pressure of the cold water inflow passage 23 is controlled by controlling the stepping motor 46 by the instruction of the controller 27 for the rotational angle position of the pilot valve shaft 43. Side pressure piston 3
6 or switching to the water pressure piston 37, and the conduction area between the hot water pilot pressure introducing passage 40 and the water pilot pressure introducing passage 41 and the cold water inflow passage 23 can be changed. For example, when the stepping motor 46 turns around the pilot valve shaft 43, the cutout flow passage 44 formed in the pilot valve shaft 43 turns its back to the hot water pilot pressure introducing passage 40 and the water side pilot pressure introducing passage 41. When the degree of increase first increases, the cold water inflow path 23 and the hot water pilot pressure introducing path 40 are closed, and the conduction area between the cold water inflow path 23 and the water side pilot pressure introducing path 41 increases. That is, the water flow from the cold water inflow passage 23 passes through the cutout passage 44 of the pilot valve shaft 43, further passes through the water side pilot pressure introducing passage 41, and reaches the water side pressure piston 37. This is because the cutout passage 44 expands toward the water-side pilot pressure introduction passage 41. Then, the working pressure on the hot water pressure piston 36, which tends to push the hot water valve body 38 toward the hot water valve seat 38, decreases, and the hot water valve body 32 pushes the hot water valve body 32 toward the hot water valve seat 39. The working pressure on the water side pressure piston 37 increases. On the contrary, the stepping motor 46 turns around the pilot valve shaft 43, and the cutout flow passage 44 formed in the pilot valve shaft 43 turns its back to the water side pilot pressure introduction passage 41 and is applied to the hot water side pilot pressure introduction passage 40. When the degree of increase first increases, the communication between the cold water inflow passage 23 and the water side pilot pressure introduction passage 41 is closed, and the conduction area between the cold water inflow passage 23 and the hot water pilot pressure introduction passage 41 increases. Then, the working pressure on the water-side pressure piston 37, which tends to push the water-side valve element 32 toward the water-side valve seat 39, decreases, and the hot-water valve element 31 pushes toward the hot-side valve seat 38. The working pressure on the hot water pressure piston 36 increases. As described above, the force balance action moves the mixing valve body 30 to change the flow rate ratio of the hot water and the cold water. Since only one thin pilot valve shaft with a diameter of about 2 to 3 g is rotationally controlled in this way, an extremely small rotational driving force of about 0.1 torque is sufficient even if the O-ring is sealed. As the actuator, it is possible to control the flow rate ratio of hot water and cold water by providing only one small stepping motor 46 with low power consumption.
【００２３】[0023]
【発明の効果】以上のように本発明の給湯制御装置によ
れば、次の効果が得られる。As described above, according to the hot water supply controller of the present invention, the following effects can be obtained.
【００２４】（１）端末給湯器に温水と冷水の混合比を
電気的に可変する混合比可変手段と、その混合比可変手
段の駆動と貯湯槽に設けられた加熱装置の制御を行う制
御器とを設けた構成とし、出湯温度の制御器を給湯水栓
近傍に設置する構造としたため、電気配線および配管施
工が容易で、しかも安定した温度の温水が出湯開始直後
から得られる給湯制御装置が得られる。(1) Mixing ratio varying means for electrically varying the mixing ratio of hot water and cold water in the terminal water heater, and a controller for driving the mixing ratio varying means and controlling the heating device provided in the hot water storage tank With a structure in which the hot water supply temperature controller is installed near the hot water supply faucet, electrical wiring and piping work is easy, and a hot water supply control device that can obtain hot water with a stable temperature immediately after starting hot water is provided. can get.
【００２５】（２）端末給湯器に設けられた混合比可変
手段は、湯側パイロット圧導入路および水側パイロット
圧導入路の流路面積を可変するパイロット圧可変手段を
制御器からの信号で駆動し、湯側圧力ピストンおよび水
側圧力ピストンに作用する圧力を変化させる構成なの
で、極めて小さい駆動力で温水と冷水の混合比を可変で
きる。したがって混合比可変手段の端末給湯器内に占め
る容積を小さくすることができ、優れた温調機能を内部
に有しながら、従来品と比較してもさほど大きさに差の
ない端末給湯器が得られる。(2) The mixing ratio varying means provided in the terminal water heater supplies pilot pressure varying means for varying the flow passage area of the hot water pilot pressure introducing passage and the water side pilot pressure introducing passage with a signal from the controller. Since it is driven to change the pressure acting on the hot water pressure piston and the water pressure piston, the mixing ratio of hot water and cold water can be changed with an extremely small driving force. Therefore, the volume occupied by the mixing ratio varying means in the terminal water heater can be reduced, and a terminal water heater that has an excellent temperature control function and is not much different in size from conventional products can be provided. can get.
【図１】本発明の一実施例における給湯制御装置のシス
テムを示す構成図FIG. 1 is a configuration diagram showing a system of a hot water supply control device according to an embodiment of the present invention.
【図２】同実施例における混合比可変手段の断面図FIG. 2 is a cross-sectional view of a mixing ratio varying means in the same embodiment.
【図３】同手段におけるパイロット圧可変手段の斜視図FIG. 3 is a perspective view of pilot pressure varying means in the same means.
【図４】従来の給湯制御装置のシステムを示す構成図FIG. 4 is a configuration diagram showing a system of a conventional hot water supply control device.
１３ 主給湯熱源機 １６ 端末給湯機 １７ 加熱装置 １８ 入口流路 １９ 出口流路 ２０ 貯湯槽 ２１ バイパス流路 ２２ １次混合流路 ２３ 冷水流入路 ２４ 混合比可変手段 ２５ ２次混合流路 ２６ 温度検出器 ２７ 制御器 ２８ 設定器 ２９ 端末給湯ユニット ３１ 湯側弁体 ３２ 水側弁体 ３３ 弁軸 ３４ シリンダ流路 ３５ 仕切りピストン ３６ 湯側圧力ピストン ３７ 水側圧力ピストン ３８ 湯側弁座 ３９ 水側弁座 ４０ 湯側パイロット圧導入路 ４１ 水側パイロット圧導入路 ４２ パイロット圧可変手段 13 Main Hot Water Heat Source Machine 16 Terminal Water Heater 17 Heating Device 18 Inlet Flow Path 19 Outlet Flow Path 20 Hot Water Storage Tank 21 Bypass Flow Path 22 Primary Mixing Flow Path 23 Cold Water Inflow Path 24 Mixing Ratio Changing Means 25 Secondary Mixing Flow Path 26 Temperature Detector 27 Controller 28 Setting device 29 Terminal hot water supply unit 31 Hot water valve body 32 Water side valve body 33 Valve shaft 34 Cylinder flow path 35 Partition piston 36 Hot water side pressure piston 37 Water side pressure piston 38 Hot water side valve seat 39 Water side Valve seat 40 Hot water side pilot pressure introduction path 41 Water side pilot pressure introduction path 42 Pilot pressure varying means
Claims (2)
る貯湯槽と、前記入口流路から分岐し前記貯湯槽を通ら
ずに前記出口流路に合流するバイパス流路と、前記出口
流路と前記バイパス流路が接続合流してなる１次混合流
路と、冷水流入路から供給される冷水と前記１次混合流
路から供給される温水の混合比を電気的に可変する混合
比可変手段と、前記混合比可変手段の下流に設けられた
２次混合流路と、前記２次混合流路に設けられた温度検
出器と、設定された出湯温度と前記温度検出器によって
検出された出湯温度を比較して前記混合比可変手段へ信
号を送るとともに前記加熱装置の温度制御も行う制御器
とから構成される端末給湯器と、給湯水栓近傍に設置さ
れ前記端末給湯器の出湯温度設定を行う設定器からなる
給湯端末ユニットを主給湯熱源機の下流に直列接続して
なる給湯制御装置。1. A hot water storage tank having a heating device, an inlet flow passage and an outlet flow passage, a bypass flow passage branched from the inlet flow passage and joined to the outlet flow passage without passing through the hot water storage tank, and the outlet flow. Passage and the bypass passage are connected and merged, and a mixing ratio for electrically varying the mixing ratio of the cold water supplied from the cold water inflow passage and the hot water supplied from the primary mixing passage. The varying means, the secondary mixing flow passage provided downstream of the mixing ratio varying means, the temperature detector provided in the secondary mixing flow passage, the set outlet temperature and the temperature detected by the temperature detector. And a hot water supply device that sends a signal to the mixing ratio varying means to control the temperature of the heating device and a hot water supply device installed near the hot water tap. Hot water supply terminal unit consisting of setting device for temperature setting Hot water supply control apparatus comprising serially connected downstream of the main hot water supply heat source apparatus.
る貯湯槽と、前記入口流路から分岐し前記貯湯槽を通ら
ずに前記出口流路に合流するバイパス流路と、前記出口
流路と前記バイパス流路が接続合流してなる１次混合流
路と、前記１次混合流路および冷水流入路と湯側流出路
および水側流出路が接続されるシリンダ流路と、前記シ
リンダ流路に設けられた湯側弁座および湯側弁体と水側
弁座および水側弁体と、前記湯側弁体に弁軸を介して連
結された湯側圧力ピストンと、前記水側弁体に弁軸を介
して連結された水側圧力ピストンと、湯側弁体および水
側弁体に連結されシリンダ流路を湯側と水側に仕切る仕
切りピストンと、前記冷水流入路の水圧を前記湯側圧力
ピストンへ導入する湯側パイロット圧導入路と、前記冷
水流入路の水圧を前記水側圧力ピストンへ導入する水側
パイロット圧導入路と、前記湯側パイロット圧導入路お
よび前記水側パイロット圧導入路と前記冷水流入路の導
通面積を加減するパイロット圧可変手段と、前記湯側流
出路と前記水側流出路が接続合流してなる２次混合流路
と、前記２次混合流路に設けられた温度検出器と、設定
された出湯温度と前記温度検出器によって検出された出
湯温度を比較して前記混合比可変手段へ信号を送るとと
もに前記加熱装置の温度制御も行う制御器とから構成さ
れる端末給湯器と、給湯水栓近傍に設置され前記端末給
湯器の出湯温度設定を行う設定器からなる給湯端末ユニ
ットを主給湯熱源機の下流に直列接続してなる給湯制御
装置。2. A hot water storage tank having a heating device, an inlet flow passage and an outlet flow passage, a bypass flow passage branched from the inlet flow passage and joined to the outlet flow passage without passing through the hot water storage tank, and the outlet flow. A primary mixing channel formed by connecting and joining a channel and the bypass channel, a cylinder channel connecting the primary mixing channel and the cold water inflow channel to the hot water outlet channel and the water outlet channel, and the cylinder. A hot water valve seat and a hot water valve body, a hot water valve seat, and a hot water valve body provided in a flow path, a hot water side pressure piston connected to the hot water valve body via a valve shaft, and the hot water side A water side pressure piston connected to the valve body via a valve shaft, a hot water side valve body and a partition piston connected to the water side valve body to partition the cylinder flow path into the hot water side and the water side, and the water pressure of the cold water inflow path. To the hot water side pressure piston and the hot water side pilot pressure introduction path and the water pressure of the cold water inflow path. A water-side pilot pressure introducing passage for introducing into the water-side pressure piston, a pilot pressure varying means for adjusting the conduction area of the hot water-side pilot pressure introducing passage, the water-side pilot pressure introducing passage, and the cold water inflow passage, and the hot water. A secondary mixing flow path formed by connecting and joining the water-side outflow path and the water-side outflow path, a temperature detector provided in the secondary mixing flow path, a set outlet temperature and the temperature detected by the temperature detector. And a hot water supply device that sends a signal to the mixing ratio varying means to control the temperature of the heating device and a hot water supply device installed near the hot water tap. A hot water supply control device in which a hot water supply terminal unit including a setting device for setting a temperature is connected in series downstream of a main hot water supply heat source device.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP22097593A JP2962115B2 (en) | 1993-09-06 | 1993-09-06 | Hot water supply control device |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP22097593A JP2962115B2 (en) | 1993-09-06 | 1993-09-06 | Hot water supply control device |
Publications (2)
| Publication Number | Publication Date |
|---|---|
| JPH0777337A true JPH0777337A (en) | 1995-03-20 |
| JP2962115B2 JP2962115B2 (en) | 1999-10-12 |
Family
ID=16759506
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| JP22097593A Expired - Fee Related JP2962115B2 (en) | 1993-09-06 | 1993-09-06 | Hot water supply control device |
Country Status (1)
| Country | Link |
|---|---|
| JP (1) | JP2962115B2 (en) |
Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JP2019132463A (en) * | 2018-01-29 | 2019-08-08 | リンナイ株式会社 | Instantaneous hot water tapping device |
| JP2019138523A (en) * | 2018-02-08 | 2019-08-22 | リンナイ株式会社 | Instantaneous hot water delivery device |
| JP2019138492A (en) * | 2018-02-06 | 2019-08-22 | リンナイ株式会社 | Instantaneous hot water tapping device |
-
1993
- 1993-09-06 JP JP22097593A patent/JP2962115B2/en not_active Expired - Fee Related
Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JP2019132463A (en) * | 2018-01-29 | 2019-08-08 | リンナイ株式会社 | Instantaneous hot water tapping device |
| JP2019138492A (en) * | 2018-02-06 | 2019-08-22 | リンナイ株式会社 | Instantaneous hot water tapping device |
| JP2019138523A (en) * | 2018-02-08 | 2019-08-22 | リンナイ株式会社 | Instantaneous hot water delivery device |
Also Published As
| Publication number | Publication date |
|---|---|
| JP2962115B2 (en) | 1999-10-12 |
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