JP2563271B2 - Hot water mixing controller - Google Patents

Hot water mixing controller

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Publication number
JP2563271B2
JP2563271B2 JP61164065A JP16406586A JP2563271B2 JP 2563271 B2 JP2563271 B2 JP 2563271B2 JP 61164065 A JP61164065 A JP 61164065A JP 16406586 A JP16406586 A JP 16406586A JP 2563271 B2 JP2563271 B2 JP 2563271B2
Authority
JP
Japan
Prior art keywords
hot water
temperature
water temperature
deviation
amount
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
Application number
JP61164065A
Other languages
Japanese (ja)
Other versions
JPS6319016A (en
Inventor
浩一 植木
博 藤枝
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Panasonic Holdings Corp
Original Assignee
Matsushita Electric Industrial Co Ltd
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Filing date
Publication date
Application filed by Matsushita Electric Industrial Co Ltd filed Critical Matsushita Electric Industrial Co Ltd
Priority to JP61164065A priority Critical patent/JP2563271B2/en
Publication of JPS6319016A publication Critical patent/JPS6319016A/en
Application granted granted Critical
Publication of JP2563271B2 publication Critical patent/JP2563271B2/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

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  • Domestic Hot-Water Supply Systems And Details Of Heating Systems (AREA)
  • Control Of Temperature (AREA)

Description

【発明の詳細な説明】 産業上の利用分野 本発明は高温湯と水とを混合し、シャワー、洗面等に
使用する適温湯をつくる湯水混合制御装置に関する。
Description: BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a hot and cold water mixing control device for mixing high-temperature hot water and water to produce suitable hot water for use in showers, washing surfaces and the like.

従来の技術 従来、ワックスサーモを利用した機械式の自動温調混
合栓はあったが、電子制御式の湯水混合制御装置はなか
った。
2. Description of the Related Art Conventionally, there was a mechanical automatic temperature control mixer tap using a wax thermostat, but there was no electronically controlled hot water mixer.

発明が解決しようとする問題点 ワックスサーモを利用した機械式の自動温調混合栓は
第5図に示すように、設定流量を変更すると出湯温度に
大きなオーバーシュートを生じたり、逆にアンダーシュ
ートを生じていた。更に設定流量を変えると設定温度よ
り定常偏差の生じた湯温になる。特にシャワーを使用し
ていて設定流量を変更すると突然オーバーシュートした
熱湯を浴びたり、逆に冷たい湯を浴びたり非常に危険か
つ不快感の生じるものであった。
Problems to be Solved by the Invention As shown in FIG. 5, a mechanical thermostatic mixer using a wax thermostat causes a large overshoot in the hot water temperature when the set flow rate is changed, or conversely an undershoot. It was happening. When the set flow rate is further changed, the hot water temperature has a steady deviation from the set temperature. In particular, when a shower is used and the set flow rate is changed, sudden hot water overshoot or conversely cold water is bathed, which is extremely dangerous and uncomfortable.

本発明はかかる点を鑑みなされたもので、熱い湯を急
に浴びたりという危険性がなく。さらに冷たい湯を浴び
たりという不快感のない使い勝手の良い湯水混合制御装
置を提供することを目的とする。
The present invention has been made in view of the above point, and there is no danger of suddenly taking hot water. It is another object of the present invention to provide a hot and cold water mixing control device which is easy to use and does not have the discomfort of bathing in cold water.

問題点を解決するための手段 上記問題点を解決するために本発明の湯水混合制御装
置は、水量及び湯量を調節する水側弁及び湯側弁と、前
記水側弁、湯側弁を駆動する第1及び第2の駆動手段
と、前記水側弁及び湯側弁を取り付けている水側配管及
び湯側配管が更に下流で合流し混合部をなし混合部へ前
記湯側弁を通し供給される湯温を想定し、この想定した
湯温の値をあらかじめ設定しておく供給湯温推定手段
と、混合部へ供給される水の温度のみをあらかじめ検出
しその後混合湯温を検出する湯温検出手段と、混合湯温
を設定する湯温設定手段と、前記供給湯温推定手段と前
記湯温検出手段と前記湯温設定手段とから混合比率を演
算し求める混合比率演算手段と、前記湯温検出手段と前
記湯温設定手段とから温度偏差を求める偏差検出手段
と、前記偏差検出手段の出力信号に比例し前記混合比率
演算手段の調節量を求める比例演算手段と、温度偏差の
変化勾配を設定する微分値設定手段と、温度偏差の微分
値を求め前記微分値設定手段の微分設定値と比較する微
分値判定手段と、温度偏差の微分値が微分設定値より大
きい時温度偏差の微分値をもとに混合比率の調節量を求
める微分演算手段と、前記混合比率演算手段と前記比例
演算手段と前記微分演算手段とから前記第1及び前記第
2の駆動手段の付勢量比率を演算する付勢量比率演算手
段と、前記付勢量比率演算手段から前記第1及び第2の
駆動手段の付勢量を決定する付勢量設定手段とからな
る。
Means for Solving the Problems In order to solve the above-mentioned problems, a hot and cold water mixing control device of the present invention drives a water side valve and a hot water side valve for adjusting the water quantity and the hot water quantity, and the water side valve and the hot water side valve. The first and second drive means, the water side pipe and the hot water side valve to which the water side valve and the hot water side valve are attached merge further downstream, and a mixing section is formed, and the hot side valve is supplied to the mixing section. A hot water temperature estimating means for preliminarily setting the estimated hot water temperature and a hot water for detecting only the temperature of the water to be supplied to the mixing section and then detecting the hot water temperature for mixing. A temperature detecting means, a hot water temperature setting means for setting a hot water temperature for mixing, a supply hot water temperature estimating means, a hot water temperature detecting means, and a hot water temperature setting means for calculating a hot water mixing ratio, and a mixing ratio calculating means, Deviation detecting means for obtaining temperature deviation from the hot water temperature detecting means and the hot water temperature setting means A step, a proportional calculating means for obtaining an adjustment amount of the mixing ratio calculating means in proportion to an output signal of the deviation detecting means, a differential value setting means for setting a change gradient of the temperature deviation, and a differential value of the temperature deviation for obtaining the differential value. Differential value determining means for comparing with the differential set value of the differential value setting means, differential calculating means for obtaining the adjustment amount of the mixing ratio based on the differential value of the temperature deviation when the differential value of the temperature deviation is larger than the differential set value, Energizing amount ratio computing means for computing the energizing amount ratio of the first and second driving means from the mixing ratio computing means, the proportional computing means, and the differential computing means, and the energizing amount ratio computing means. From the urging amount setting means for determining the urging amounts of the first and second driving means.

作用 利用者がシャワー等を使用している時、設定流量を変
更した場合を考える。現在出湯している湯温は設定温度
のままで水側弁及び湯側弁の弁開度を絞ったり、又開け
たりして流量を調節する。まず供給湯温推定手段と湯温
検出手段と湯温設定手段とから湯量、水量の混合比率を
求める。この混合比率に設定温度と現在供給している湯
温との温度偏差をもとに最適な混合比率になるように比
例演算手段で調節量を求め、さらに温度偏差の変化勾配
が設定微分値以上ならば微分演算手段で温度偏差の微分
値をもとに混合比率の調節量を求め、以上の調節量と混
合比率とから第1及び第2の駆動手段の付勢量比率を求
める。次に求めた付勢量比率から付勢量を決定し出力す
る。こうして最適な混合比率に保たれたまま流量を調節
できる。利用者はシャワーを使用している途中で設定流
量を変更しても熱いとか冷たい等の不快感を味わうこと
なく快適に利用できる。
Action Consider the case where the set flow rate is changed while the user is using a shower or the like. The flow rate is adjusted by narrowing or opening the valve openings of the water side valve and the hot water side valve while keeping the temperature of the hot water currently being discharged at the set temperature. First, the amount of hot water and the mixing ratio of the amount of water are obtained from the supplied hot water temperature estimating means, the hot water temperature detecting means, and the hot water temperature setting means. Based on the temperature deviation between the set temperature and the hot water temperature currently supplied to this mixing ratio, the proportional calculation means is used to obtain the adjustment amount so that the optimum mixing ratio is obtained, and the change gradient of the temperature deviation is equal to or greater than the set differential value. If so, the differential calculation means obtains the adjustment amount of the mixing ratio based on the differential value of the temperature deviation, and the biasing amount ratio of the first and second drive means is obtained from the above adjustment amount and the mixing ratio. Then, the urging amount is determined from the obtained urging amount ratio and output. In this way, the flow rate can be adjusted while maintaining the optimum mixing ratio. Even if the user changes the set flow rate while using the shower, the user can comfortably use it without feeling uncomfortable such as hot or cold.

実施例 以下本発明の一実施例について図面を用いて説明す
る。第1図は本発明の湯水混合制御装置の断面図であ
る。
Embodiment One embodiment of the present invention will be described below with reference to the drawings. FIG. 1 is a cross-sectional view of a hot and cold water mixing control device according to the present invention.

まず本発明の構成を説明する。 First, the configuration of the present invention will be described.

第1図は、1は水側配管で、2は湯側配管で熱源から
の高温水を供給する。3は水側弁で水側配管1の途中に
あり、4は湯側弁で湯側配管2の途中に取り付けられて
いる。水側配管1と湯側配管2の更に下流で合流し混合
部をなし1本の配管となり混合出口5(カラン等)より
出湯される。6は第1の駆動手段(例えばステッピング
モーター等)で、7の回転直線運動変換部を介し水側弁
3を駆動し水量を調節する。8は第2の駆動手段(例え
ばステッピングモーター等)で、9の回転直線運動変換
部を介し湯側弁4を駆動し湯量を調節する。10は湯温検
出手段で混合部の湯温を検出し制御装置11に入力する。
12は流量検出手段で混合部に流入し出ていく混合流量を
検出し制御装置に入力する。13は湯温設定手段で、14は
流量設定手段である。
In FIG. 1, 1 is a water side pipe, and 2 is a hot water side pipe, which supplies high-temperature water from a heat source. 3 is a water side valve in the middle of the water side pipe 1, and 4 is a hot water side valve attached in the middle of the water side pipe 2. The water side pipe 1 and the hot water side pipe 2 join together further downstream to form a mixing section and form a single pipe, which is discharged from a mixing outlet 5 (calant or the like). Reference numeral 6 denotes a first drive means (for example, a stepping motor or the like), which drives the water side valve 3 via the rotary linear motion conversion portion 7 to adjust the water amount. Reference numeral 8 denotes a second drive means (for example, a stepping motor or the like), which drives the hot water side valve 4 through the rotary linear motion conversion portion 9 to adjust the hot water amount. Reference numeral 10 denotes hot water temperature detecting means for detecting the hot water temperature of the mixing section and inputting it to the control device 11.
Reference numeral 12 is a flow rate detecting means for detecting the mixing flow rate flowing in and out of the mixing section and inputting it to the control device. Reference numeral 13 is a hot water temperature setting means, and 14 is a flow rate setting means.

第2図は制御装置の一実施例である。15は供給湯温推
定手段で、湯側弁4を通し混合部へ供給する湯温を推定
する。16は混合比率演算手段で湯温検出手段10であらか
じめ求めた供給水温TWと湯温設定手段10の湯温設定値TS
と供給湯温推定手段15の供給湯温THとから混合比率を求
める。17は偏差検出手段で湯温検出手段10と湯温設定手
段13とから温度偏差を求める。18は比例演算手段で偏差
検出手段17が求めた温度偏差に比例し混合比率演算手段
16で求めた混合比率の調節量を求める。19は微分値設定
手段で温度偏差の変化勾配(即ち微分値)を設定する。
20は微分値判定手段で温度偏差の変化勾配を求め微分値
判定手段20の設定微分値と比較する。比較して設定微分
値より大きい場合、21の微分演算手段で温度偏差の微分
値より混合比率の調節量を求める。22は付勢量比率演算
手段で、求めた混合比率を前述の調節量で補正し付勢量
比率を求める。23は付勢量設定手段で付勢量比率演算手
段22で求めた付勢量比率より第1及び第2の駆動手段
6、8の付勢量を決定し出力する。
FIG. 2 shows an embodiment of the control device. A hot water supply temperature estimating means 15 estimates the hot water temperature to be supplied to the mixing section through the hot water valve 4. Reference numeral 16 is a mixing ratio calculation means, and the supply water temperature T W previously determined by the hot water temperature detection means 10 and the hot water temperature set value T S of the hot water temperature setting means 10
Determining the mixing ratio from the supply water temperature T H of the feed water temperature estimating means 15 and. Reference numeral 17 denotes a deviation detecting means for obtaining a temperature deviation from the hot water temperature detecting means 10 and the hot water temperature setting means 13. Reference numeral 18 is a proportional calculation means, which is proportional to the temperature deviation obtained by the deviation detection means 17 and is a mixing ratio calculation means.
Find the adjustment amount of the mixing ratio obtained in 16. Reference numeral 19 is a differential value setting means for setting the gradient of change in temperature deviation (that is, differential value).
A differential value determining means 20 obtains a change gradient of the temperature deviation and compares it with the set differential value of the differential value determining means 20. In comparison, if the differential value is larger than the set differential value, 21 differential calculating means obtains the adjustment amount of the mixing ratio from the differential value of the temperature deviation. Reference numeral 22 denotes an urging amount ratio calculation means, which corrects the obtained mixing ratio with the above-mentioned adjustment amount to obtain the urging amount ratio. Denoted by 23 is an energizing amount setting means, which determines the energizing amounts of the first and second driving means 6, 8 from the energizing amount ratio calculated by the energizing amount ratio calculating means 22 and outputs the determined energizing amounts.

次に本発明の構成の動作について説明する。 Next, the operation of the configuration of the present invention will be described.

利用者が現在使用中の湯温を変更せずに流量設定手段
14を操作し流量の増加もしくは減少指示を行なった場
合、まず現在の混合比率DU0を求める。あらかじめ湯温
検出手段10で検出した水温TWと、設定湯温TSと供給湯温
推定手段15で推定した供給湯温THとから混合比率DU0を
(1)式より求める。
Flow rate setting means without changing the hot water temperature currently being used by the user
When 14 is operated to give an instruction to increase or decrease the flow rate, the current mixing ratio DU0 is first obtained. Advance the water temperature T W detected by the water temperature detecting means 10, obtained from (1) the mixing ratio DU0 from supplied water temperature T H estimated by the supply water temperature estimating means 15 and set hot water temperature T S.

第3図のフローチャートのP1、P2、P3、P6である。 These are P 1 , P 2 , P 3 , and P 6 in the flowchart of FIG.

次に設定湯温TSと出湯温度TOとから温度偏差Enを求め
る。この温度偏差Enに比例した混合比率DU0の調節量DU1
を(2)式より求める。
Next, a temperature deviation E n is obtained from the set hot water temperature T S and the hot water discharge temperature T O. Adjusting the amount of mixture ratio DU0 proportional to the temperature deviation E n DU1
Is calculated from the equation (2).

DU10=C・En ……(2) 第3図のフロチャートのP4、P5、P7である。 DU10 = C · E n ...... ( 2) is a P 4, P 5, P 7 of flow chart of Figure 3.

次に偏差検出手段17で求めた温度偏差Enの微分値(dE
n/dt)を求め、微分値設定手段19の設定微分Krefと比較
する。
Then the differential value of the temperature deviation E n obtained by the deviation detecting means 17 (dE
n / dt) is obtained and compared with the set differential Kref of the differential value setting means 19.

温度偏差Enの微分値をもとに混合比率の調節量を求め
る。
Determine the adjustment amount of the mixing ratio based on the differential value of the temperature deviation En.

第3図のフローチャートのP8、P9である。 P 8 of the flow chart of FIG. 3, a P 9.

温度偏差の変化はゆるやかであり、温度偏差の変化勾
配による混合比率の調節量を0とする。
The change in the temperature deviation is gradual, and the adjustment amount of the mixing ratio based on the change gradient of the temperature deviation is set to zero.

DU11=0 ……(4) 第3図のフローチャートのP8、P10である。DU11 = 0 ...... (4) is a P 8, P 10 of the flow chart of FIG. 3.

次に付勢量比率演算手段22では混合比率DU0に混合比
率の調節量で補正を行ない付勢量比率DU2を求める。
Next, the urging amount ratio calculation means 22 corrects the mixture ratio DU0 with the adjustment amount of the mixture ratio to obtain the urging amount ratio DU2.

DU2=DU0+DU10+DU11 ……(5) 第3図のフローチャートのP11である。第1及び第2
の駆動手段6、8の付勢量をU1、U2とすると の関係がある。付勢量設定手段23で第1及び第2の駆動
手段6、8の付勢量U1、U2を(6)式より決定し出力す
る。
DU2 = DU0 + DU10 + DU11 ...... (5) is a P 11 of the flowchart of Figure 3. First and second
If the urging amounts of the driving means 6 and 8 are U 1 and U 2 , There is a relationship. The urging amount setting means 23 determines the urging amounts U 1 and U 2 of the first and second driving means 6 and 8 from the equation (6) and outputs them.

このようにして決定した付勢量U1、U2で水側弁3、湯
側弁4を駆動し設定流量になる迄弁を絞り、あるいは開
け続ける。
The water side valve 3 and the hot water side valve 4 are driven by the urging amounts U 1 and U 2 thus determined, and the valves are continuously throttled or opened until the set flow rate is reached.

例えば流量を増加させようとしている時、湯温が下が
ると、(2)式、(3)式、(4)式より温度偏差をな
くそうとして混合比率の調節量を演算し(5)式で最適
な付勢量比率を求める。
For example, when the temperature of the hot water is lowered while trying to increase the flow rate, the adjustment amount of the mixing ratio is calculated by the formula (5) in order to eliminate the temperature deviation from the formulas (2), (3) and (4). Find the optimal bias amount ratio.

流量を変更途中、湯温変化が全くない場合、混合比率
の調節量DU10=0、DU11=0となり混合比率DU0は付勢
量比率DU2に等しい。しかし少しでも湯温が変化すれば
又湯温変化の速さに応じ付勢量比率DU2が修正され、弁
開度がすぐに最適比率の位置へ補正し湯温を直ちに設定
温度に修正する。
When there is no change in the hot water temperature while changing the flow rate, the mixing ratio adjustment amounts DU10 = 0 and DU11 = 0, and the mixing ratio DU0 is equal to the energizing amount ratio DU2. However, if the hot water temperature changes even a little, the urging amount ratio DU2 is corrected according to the speed of the hot water temperature change, the valve opening is immediately corrected to the position of the optimum ratio, and the hot water temperature is immediately corrected to the set temperature.

発明の効果 以上のように本発明の湯水混合制御装置によれば、水
量、湯量を調節する水側弁、湯側弁と、前記水側弁、湯
側弁を駆動する第1及び第2の駆動手段と、前記水側
弁、湯側弁が取り付けられている水側配管、湯側配管の
下流で合流して混合部をなし、混合部の湯温を設定する
湯温設定手段と、混合部に流入する湯温を想定し、この
想定した湯温をあらかじめ設定しておく供給湯温推定手
段と、混合部に流入する水の温度のみをあらかじめ検出
しその後混合された湯温を検出する湯温検出手段と、前
記供給湯温推定手段と前記湯温設定手段と前記湯温検出
手段とから混合比率を演算し求める混合比率演算手段
と、前記湯温検出手段と前記湯温設定手段とから温度偏
差を求める偏差検出手段と、求めた温度偏差に比例して
混合比率の調節量を求める比例演算手段と、温度偏差の
変化勾配が微分設定値より大きい場合温度偏差の微分値
より混合比率の調節量を求める微分演算手段と、混合比
率と以上求めた混合比率の調節量とから前記第1及び第
2の駆動手段の付勢量比率を求める付勢量比率演算手段
を、求めた付勢量比率より付勢量を設定する付勢量設定
手段とで構成することにより、利用者が任意の設定流量
値に変更することにより湯温が変動し始めてもすぐに最
適な付勢量比率を求め、又湯温変化が急であってもその
微分値に対応して付勢量比率を求めて湯温を修正するこ
とにより、熱くなったり、冷たくなったりという不快感
を感じることなく、又定常偏差を生じることもなく常に
安定した湯を供給でき、きわめて安全かつ使い勝手のす
ぐれた効果を得ている。
EFFECTS OF THE INVENTION As described above, according to the hot and cold water mixing control device of the present invention, the water amount, the water side valve for adjusting the amount of hot water, the hot water valve, and the first and second first and second water side valves that drive the hot water valve. A driving means, the water side valve, a water side pipe to which the hot water side valve is attached, a hot water temperature setting means that joins downstream of the hot water pipe to form a mixing section, and sets the hot water temperature of the mixing section; Assuming the temperature of the hot water flowing into the part, the estimated hot water temperature is preset, and only the temperature of the water flowing into the mixing part is detected in advance, and the mixed hot water temperature is then detected. A hot water temperature detecting means, a hot water supply temperature estimating means, a hot water temperature setting means, and a hot water temperature detecting means for calculating a hot water mixing ratio, and a hot water temperature detecting means and a hot water temperature setting means. Deviation detection means for finding the temperature deviation from the temperature deviation, and adjustment of the mixing ratio in proportion to the found temperature deviation. Proportional calculation means for determining the saving amount, differential calculation means for calculating the adjustment amount of the mixing ratio from the differential value of the temperature deviation when the change gradient of the temperature deviation is larger than the differential setting value, and the mixing ratio and the adjustment amount of the mixing ratio obtained above By configuring the urging amount ratio calculating means for obtaining the urging amount ratio of the first and second drive means from the above, with urging amount setting means for setting the urging amount based on the obtained urging amount ratio. , Even if the hot water temperature starts to fluctuate by the user changing the set flow rate value, the optimum energizing amount ratio is immediately obtained, and even if the hot water temperature changes suddenly, By adjusting the hot water temperature by calculating the force ratio, it is possible to always supply stable hot water without feeling uncomfortable such as getting hot or cold, and without causing a steady deviation, which is extremely safe and easy to use. Has an excellent effect.

【図面の簡単な説明】[Brief description of drawings]

第1図は本発明の一実施例の湯水混合制御装置の断面
図、第2図は同装置の制御ブロック図、第3図は同装置
のフローチャート図、第4図は同装置の制御結果図、第
5図は従来の湯水混合制御装置の制御結果図である。 3……水側弁、4……湯側弁、6……第1の駆動手段、
8……第2の駆動手段、10……湯温検出手段、13……湯
温設定手段、15……供給湯温推定手段、16……混合比率
演算手段、17……偏差検出手段、18……比例演算手段、
19……微分値設定手段、20……微分値判定手段、21……
微分演算手段、22……付勢量比率演算手段、23……付勢
量設定手段。
FIG. 1 is a sectional view of a hot and cold water mixing control device according to an embodiment of the present invention, FIG. 2 is a control block diagram of the same device, FIG. 3 is a flowchart diagram of the same device, and FIG. 4 is a control result diagram of the same device. FIG. 5 is a control result diagram of a conventional hot and cold water mixing control device. 3 ... water side valve, 4 ... hot water side valve, 6 ... first driving means,
8 ... Second drive means, 10 ... Hot water temperature detecting means, 13 ... Hot water temperature setting means, 15 ... Supply hot water temperature estimating means, 16 ... Mixing ratio calculating means, 17 ... Deviation detecting means, 18 ... Proportional calculation means,
19 ... Differential value setting means, 20 ... Differential value determining means, 21 ...
Derivative calculation means, 22 ... Energizing amount ratio calculating means, 23 ... Energizing amount setting means.

Claims (1)

(57)【特許請求の範囲】(57) [Claims] 【請求項1】水量を調節する水側弁と、湯量を調節する
湯側弁と、前記水側弁及び前記湯側弁を駆動する第1及
び第2の駆動手段と、前記水側弁及び前記湯側弁を取り
付けている水側配管及び湯側配管が更に下流で合流し混
合部をなし、湯側弁を通し供給される湯温を想定し、こ
の想定した湯温の値をあらかじめ設定しておく供給湯温
推定手段と、混合部に流入する水温のみをあらかじめ検
出しその後混合湯温を検出する湯温検出手段と、混合部
の湯温を設定する湯温設定手段と、前記供給湯温推定手
段と前記湯温検出手段を前記湯温設定手段とから混合比
率を求める混合比率演算手段と、前記湯温検出手段と前
記湯温設定手段とから温度偏差を求める偏差検出手段
と、前記偏差検出手段で求めた温度偏差に比例した混合
比率の調節量を求める比例演算手段と、前記偏差検出手
段の変化勾配を設定する微分値設定手段と、前記偏差検
出手段の求めた温度偏差の微分値を求め前記微分値設定
手段の設定値と比較する微分値判定手段と、前記微分値
判定手段で求めた温度偏差の微分値が前記微分値設定手
段の設定値より大きい時温度偏差の微分値をもとに混合
比率の調節量を求める微分演算手段と、前記混合比率演
算手段と前記比例演算手段と前記微分演算手段とから前
記第1及び第2の駆動手段の付勢量比率を求める付勢量
比率演算手段と、求めた付勢量比率より付勢量を決定す
る付勢量設定手段とよりなる湯水混合制御装置。
1. A water side valve for adjusting the amount of water, a hot water side valve for adjusting the amount of hot water, first and second drive means for driving the water side valve and the hot water side valve, the water side valve, and The water-side pipe to which the hot-water valve is attached and the hot-water pipe merge further downstream to form a mixing section, and the hot water temperature supplied through the hot-water valve is assumed, and the assumed hot water value is set in advance. A hot water temperature estimating means for keeping the hot water temperature, a hot water temperature detecting means for previously detecting only the hot water temperature flowing into the mixing part and then detecting the hot water temperature of the mixing part, a hot water temperature setting means for setting the hot water temperature of the mixing part, A mixing ratio calculating means for obtaining a mixing ratio from the hot water temperature estimating means and the hot water temperature detecting means, and a deviation detecting means for obtaining a temperature deviation from the hot water temperature detecting means and the hot water temperature setting means; Obtain the adjustment amount of the mixing ratio proportional to the temperature deviation obtained by the deviation detecting means Proportional calculation means, differential value setting means for setting the change gradient of the deviation detection means, and differential value determination means for calculating the differential value of the temperature deviation obtained by the deviation detection means and comparing it with the set value of the differential value setting means. Differential operation means for obtaining the adjustment amount of the mixing ratio based on the differential value of the temperature deviation when the differential value of the temperature deviation obtained by the differential value determination means is larger than the set value of the differential value setting means, An urging amount ratio calculating means for obtaining the urging amount ratio of the first and second driving means from the ratio calculating means, the proportional calculating means and the differential calculating means, and an urging amount from the obtained urging amount ratio. A hot and cold water mixing control device comprising a biasing amount setting means for determining.
JP61164065A 1986-07-11 1986-07-11 Hot water mixing controller Expired - Lifetime JP2563271B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP61164065A JP2563271B2 (en) 1986-07-11 1986-07-11 Hot water mixing controller

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP61164065A JP2563271B2 (en) 1986-07-11 1986-07-11 Hot water mixing controller

Publications (2)

Publication Number Publication Date
JPS6319016A JPS6319016A (en) 1988-01-26
JP2563271B2 true JP2563271B2 (en) 1996-12-11

Family

ID=15786114

Family Applications (1)

Application Number Title Priority Date Filing Date
JP61164065A Expired - Lifetime JP2563271B2 (en) 1986-07-11 1986-07-11 Hot water mixing controller

Country Status (1)

Country Link
JP (1) JP2563271B2 (en)

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* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO2019070042A1 (en) 2017-10-05 2019-04-11 マクセル株式会社 Contactless internal measurement device, contactless internal measurement method, and internal measurement result display system

Family Cites Families (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS5344689B2 (en) * 1971-09-28 1978-11-30
JPS53135845U (en) * 1977-04-01 1978-10-27
DE3030716C2 (en) * 1980-08-14 1984-05-30 Friedrich Grohe Armaturenfabrik Gmbh & Co, 5870 Hemer Valve device
JPS6058764B2 (en) * 1980-09-16 1985-12-21 株式会社東芝 Continuous furnace plate temperature control method

Also Published As

Publication number Publication date
JPS6319016A (en) 1988-01-26

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