JPS6113543B2 - - Google Patents
Info
- Publication number
- JPS6113543B2 JPS6113543B2 JP53129587A JP12958778A JPS6113543B2 JP S6113543 B2 JPS6113543 B2 JP S6113543B2 JP 53129587 A JP53129587 A JP 53129587A JP 12958778 A JP12958778 A JP 12958778A JP S6113543 B2 JPS6113543 B2 JP S6113543B2
- Authority
- JP
- Japan
- Prior art keywords
- space
- air conditioning
- priority
- air
- refrigerant flow
- 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
Links
- 238000004378 air conditioning Methods 0.000 claims description 49
- 239000003507 refrigerant Substances 0.000 claims description 13
- 238000001514 detection method Methods 0.000 claims description 8
- 238000001816 cooling Methods 0.000 description 16
- 230000007423 decrease Effects 0.000 description 2
- 238000010586 diagram Methods 0.000 description 2
- BASFCYQUMIYNBI-UHFFFAOYSA-N platinum Chemical compound [Pt] BASFCYQUMIYNBI-UHFFFAOYSA-N 0.000 description 2
- 230000001143 conditioned effect Effects 0.000 description 1
- 230000003247 decreasing effect Effects 0.000 description 1
- 238000010438 heat treatment Methods 0.000 description 1
- 238000000034 method Methods 0.000 description 1
- 229910052697 platinum Inorganic materials 0.000 description 1
- 230000001960 triggered effect Effects 0.000 description 1
Landscapes
- Air Conditioning Control Device (AREA)
Description
【発明の詳細な説明】
本発明は空調機用制御装置に関し、特に、後述
の室内ユニツトに対応した複数の電磁弁等の冷媒
流量制御手段を有する１台の室外ユニツトに対
し、複数の空間を空調するための複数の室内ユニ
ツトを設けてなる空調機の制御装置に関する。さ
らに詳しく言えば、総合の空調負荷が空調能力よ
り大なる場合に、特定の空間を優先的に空調する
優先制御に関する。DETAILED DESCRIPTION OF THE INVENTION The present invention relates to a control device for an air conditioner, and in particular, the present invention relates to a control device for an air conditioner, and in particular, to control a plurality of spaces for one outdoor unit having refrigerant flow control means such as a plurality of solenoid valves corresponding to the indoor units described below. The present invention relates to a control device for an air conditioner including a plurality of indoor units for air conditioning. More specifically, it relates to priority control for preferentially air-conditioning a specific space when the total air-conditioning load is greater than the air-conditioning capacity.
従来この種空調機は例えば第１図に示すような
構成をもつ。第１図は室内ユニツト３台を有する
ものであるが２台以上の室内ユニツトを有するも
のは同様の構成をとる。１は室外ユニツトで、容
量可変圧縮機１Ａ、室外熱交換器１Ｂ、フアンモ
ータ１Ｃ、電磁弁１Ｄ〜１Ｆを有する。空調機の
能力としては、圧縮機１Ａの容量を制御したり、
冷媒流量制御手段としての電磁弁１Ｄ〜１Ｆを適
宜オンオフ制御して全体の能力を制御している。
室内ユニツト２，３，４は各々、室内熱交換器２
Ｂ，３Ｂ，４Ｂ、フアンモータ２Ｃ，３Ｃ，４
Ｃ、キヤピラリチユーブ２Ｇ，３Ｇ，４Ｇを有す
る。第１図の空調機は冷房専用型のものである
が、これはあくまでも本発明の説明を容易にする
ための限定であつて、本発明は冷房専用型に限定
されるものではなく、冷暖型、冷ドライ型冷暖ド
ライ型等も含むものである。このような構成にお
いて、その動作を以下に説明すると、特定の室内
ユニツトが運転している場合は、いかなる場合で
も、他の室内ユニツトの運転を禁止するか、また
は他の室内ユニツトが複数台ある場合、他の室内
ユニツトは切換運転を行なうというものである。
すなわち室内ユニツトの運転台数を予め限定する
という方法である。この方法の最大の欠点は、総
合空調負荷が検出されていないため、空調機の能
力としては全ての室内ユニツトが運転していて
も、余力のある場合、不必要に室内ユニツトの運
転を禁止してしまう場合があることである。 Conventionally, this type of air conditioner has a configuration as shown in FIG. 1, for example. Although FIG. 1 shows a system having three indoor units, a system having two or more indoor units has a similar configuration. 1 is an outdoor unit, which includes a variable capacity compressor 1A, an outdoor heat exchanger 1B, a fan motor 1C, and solenoid valves 1D to 1F. The capacity of the air conditioner is to control the capacity of the compressor 1A,
The electromagnetic valves 1D to 1F, which serve as refrigerant flow rate control means, are controlled on and off as appropriate to control the overall capacity.
Indoor units 2, 3, and 4 each have an indoor heat exchanger 2.
B, 3B, 4B, fan motor 2C, 3C, 4
C, has capillary tubes 2G, 3G, and 4G. Although the air conditioner shown in FIG. 1 is of a cooling-only type, this is just a limitation to facilitate the explanation of the present invention, and the present invention is not limited to a cooling-only type, but a cooling/heating type. , cold dry type, cool/warm dry type, etc. In such a configuration, the operation is explained below. When a specific indoor unit is operating, in any case, the operation of other indoor units is prohibited, or if there are multiple other indoor units In this case, the other indoor units perform switching operation.
In other words, the number of operating indoor units is limited in advance. The biggest drawback of this method is that the total air conditioning load is not detected, so even if all indoor units are operating within the capacity of the air conditioner, if there is surplus capacity, operation of indoor units may be prohibited unnecessarily. There are cases where this happens.
本発明は上記従来の欠点に鑑み、総合空調負荷
が空調機能力よりも大なる場合でも、特定の空調
空間の空調状態を最良に保ち、かつ、この空間以
外の空調空間の快適性もある程度保ち得る制御装
置を提供するものである。 In view of the above-mentioned conventional drawbacks, the present invention maintains the best air-conditioning condition in a specific air-conditioned space and also maintains the comfort of air-conditioned spaces other than this space to a certain extent even when the total air-conditioning load is greater than the air-conditioning function. The present invention provides a control device that obtains the following information.
そのための構成として、本発明は、圧縮機と３
個以上の冷媒流量制御手段を有する１台の室外ユ
ニツトと、複数台の室内ユニツトによりなる空調
機により空調されている複数の空間の空調状態を
検出する空調状態検出手段と、前記空間のうちの
特定の空間を選択する優先空間選択手段と、前記
優先空間選択手段で選択された優先空間の前記空
調状態検出手段で検出した空調状態が最良状態に
ないとき、前記優先空間以外の空間に対応する前
記冷媒流量制御手段を時分割制御する制御回路と
を有するものである。 As a configuration for that purpose, the present invention has a compressor and three
an outdoor unit having one or more refrigerant flow rate control means; an air conditioning state detection means for detecting the air conditioning state of a plurality of spaces air-conditioned by an air conditioner made up of a plurality of indoor units; priority space selection means for selecting a specific space; and when the air conditioning state detected by the air conditioning state detection means of the priority space selected by the priority space selection means is not in the best state, corresponding to a space other than the priority space; and a control circuit that controls the refrigerant flow rate control means in a time-division manner.
以下、本発明の一実施例につき図面の第２図お
よび第３図イ，ロ，ハ，ニに沿つて詳細に説明す
る。 Hereinafter, one embodiment of the present invention will be described in detail with reference to FIGS. 2 and 3, A, B, C, and D of the drawings.
２Ｔ，３Ｔ，４Ｔは各室内ユニツト２，３，４
に設けた、各室内ユニツトにより空調されている
空間の空調状態を検出する空調状態検出手段であ
つて、その典型的なものとして空間の温度を抵抗
値に変換するサーミスタである。ここでサーミス
タは室内ユニツト内に設けたが、室内ユニツト外
であつて空調状態を検出できる位置であるなら室
内ユニツト外にあつてもよい。６はいかなる場
合、すなわち総合空調負荷が空調能力をオーバー
するような場合にあつても、優先的にその空調状
態を指定された状態すなわち最良空調状態になる
よう空調される空間を指定する優先空間選択手段
としてのスイツチである。５はサーミスタ２Ｔ，
３Ｔ，４Ｔ、及びスイツチ６を入力とし、容量可
変圧縮機１の容量制御信号、電磁弁１Ｄ〜１Ｆを
オンオフする信号を出力する制御回路である。サ
ーミスタ２Ｔ〜４Ｔの出力は、アナログマルチプ
レクサ５Ｍにより特定の１つが選択されて、Ａ／
Ｄ変換器５Ａにてデジタル量に変換されマイクロ
コンピユータ（以下マイコンと略省）５Ｐに入力
される。スイツチ６の出力は直接マイコン５Ｐに
入力される。マイコン５Ｐでは、サーミスタ２Ｔ
〜４Ｔによつて検出した空間温度、及びマイコン
５Ｐ内に記憶されている過去の温度データに基づ
き現在の各空間の空調状態を判定する。ここで空
調状態とは、たとえば温度に限定すれば、設定し
た温度帯に各室温が入つているか否か、またさら
には現在入つていない場合でも、温度が低下の傾
向にあつて、将来入るか否かを、現在及び過去の
温度データに基づき判定できる。このような空調
状態の判定基準を与える空調判定基準設定手段と
してはマイコン５Ｐの中に予め持たせることもで
きるし、また外部からマイコン５Ｐに適当な空調
状態判定基準設定手段７、たとえば複数接点を有
するスイツチにより、それぞれの接点に温度を対
応させ、スイツチにより指定した接点によりマイ
コン５Ｐに所望の空調状態を入力することができ
る。 2T, 3T, 4T are each indoor unit 2, 3, 4
The air-conditioning state detecting means is installed in the room and detects the air-conditioning state of the space air-conditioned by each indoor unit, and a typical example thereof is a thermistor that converts the temperature of the space into a resistance value. Although the thermistor is provided inside the indoor unit here, it may be located outside the indoor unit as long as it is located outside the indoor unit and can detect the air conditioning condition. 6 is a priority space that specifies a space that will be air-conditioned preferentially to the specified state, that is, the best air-conditioning state, even in cases where the total air-conditioning load exceeds the air-conditioning capacity. This is a switch as a means of selection. 5 is thermistor 2T,
3T, 4T, and the switch 6 as inputs, this is a control circuit that outputs a capacity control signal for the variable capacity compressor 1 and a signal for turning on and off the solenoid valves 1D to 1F. A specific one of the outputs of the thermistors 2T to 4T is selected by the analog multiplexer 5M, and the output is
It is converted into a digital quantity by a D converter 5A and inputted to a microcomputer (hereinafter abbreviated as microcomputer) 5P. The output of the switch 6 is directly input to the microcomputer 5P. In microcontroller 5P, thermistor 2T
The current air conditioning state of each space is determined based on the space temperature detected by ~4T and past temperature data stored in the microcomputer 5P. Here, air conditioning status refers to, for example, temperature, whether each room temperature is within the set temperature range or not, and even if it is not currently in the temperature range, whether the temperature is decreasing and whether it will be in the future. It can be determined based on current and past temperature data. The air conditioning criterion setting means for providing such criteria for determining the air conditioning condition can be provided in advance in the microcomputer 5P, or the microcomputer 5P can be provided with an appropriate air conditioning condition criterion setting means 7, for example, multiple contacts, from the outside. With the switch, each contact point can be associated with a temperature, and a desired air conditioning state can be input to the microcomputer 5P using the contact point specified by the switch.
今、スイツチ６で指定された空間（図では接点
６２にあるから室内ユニツト３に対応する空間３
Ｒ）の空調負荷が増大して、空調機能力を超えた
とする。すると、空間の温度は上昇傾向となりサ
ーミスタ３Ｔによつて温度が検出され、マイコン
５Ｐは空間３Ｒの空調状態が最良空調状態ここで
は設定温度帯から離れていることを認識する。こ
の結果まず第１に、圧縮機１Ａの能力を増す信号
を出力し、容量制御器５Ｖ、たとえば圧縮機１Ａ
が高低二速をもつ場合は、速度切換器で前記信号
により圧縮機１Ａの容量を増加せしめ、冷房能力
を増加せしめる。もしもこのような動作を行なつ
て圧縮機１Ａの最大容量になつても、空間３Ｒの
空調状態が最良状態にならない場合は、空間２
Ｒ，４Ｒ（各々室内ユニツト２，４に対応する空
間）のうち、最良状態に近い空間に対応する室内
ユニツトの冷房運転を停止すべく、相当する電磁
弁１Ｄ、または１Ｆをオフする。これらの電磁弁
をオンオフするタイミングは、いわゆる時分割に
基づき制御される。すなわち、マイコン５Ｐは所
定のタイミングに基づいて電磁弁１Ｄと電磁弁１
Ｆとを所定時間毎に交互にオンオフする。こうす
ることにより、電磁弁１Ｄ，１Ｆに対応する空間
２Ｒ，４Ｒの永久的冷房運転の停止を免がれるこ
とができ、電磁弁がオンし続ける場合に比しその
冷房能力は略々半分に減ずるが、ゼロにはならな
いから、或る程度の快適性を維持できる。一方、
優先空間３Ｒは、室内ユニツト３の冷房能力が電
磁弁１Ｄ，１Ｆの等分割運転によつて増大するか
ら、その空調状態として最良状態になる。もしも
この最良状態が得られたら、再び上述した優先運
転を解除して、通常の運転モードすなわち三空間
の同時冷房を行なう。以上のようにして、サーミ
スタ、スイツチ、制御回路から成る制御装置は、
スイツチ６にて選択された空間を優先的に常に最
良の空調状態になるように、場合に応じて適宜電
磁弁１Ｄ，１Ｆを時分割制御し、非優先空間の快
適性を或る程度保つものである。 Now, the space specified by switch 6 (in the figure, it is at contact point 62, so space 3 corresponding to indoor unit 3)
Suppose that the air conditioning load of R) increases and exceeds the air conditioning capacity. Then, the temperature of the space tends to rise, and the temperature is detected by the thermistor 3T, and the microcomputer 5P recognizes that the air conditioning state of the space 3R is the best air conditioning state, which is far from the set temperature range. As a result, first of all, a signal is output that increases the capacity of the compressor 1A, and the capacity controller 5V, for example, the compressor 1A
If the compressor has two speeds, high and low, the speed switch uses the signal to increase the capacity of the compressor 1A, thereby increasing the cooling capacity. Even if compressor 1A reaches its maximum capacity by performing such operations, if the air conditioning condition of space 3R is not the best, then
In order to stop the cooling operation of the indoor unit corresponding to the space in the best condition among R and 4R (spaces corresponding to indoor units 2 and 4, respectively), the corresponding solenoid valve 1D or 1F is turned off. The timing of turning on and off these solenoid valves is controlled based on so-called time division. That is, the microcomputer 5P controls the solenoid valve 1D and the solenoid valve 1 based on predetermined timing.
F is turned on and off alternately at predetermined time intervals. By doing this, it is possible to avoid permanently stopping the cooling operation of the spaces 2R and 4R corresponding to the solenoid valves 1D and 1F, and the cooling capacity is approximately halved compared to when the solenoid valves are kept on. Although it decreases, it does not go to zero, so a certain level of comfort can be maintained. on the other hand,
Since the cooling capacity of the indoor unit 3 is increased by the equally divided operation of the solenoid valves 1D and 1F, the priority space 3R is in the best air conditioned state. If this best condition is obtained, the above-mentioned priority operation is canceled again and the normal operation mode, that is, simultaneous cooling of three spaces, is performed. As described above, the control device consisting of the thermistor, switch, and control circuit is
It controls the solenoid valves 1D and 1F in a time-sharing manner as appropriate so that the space selected by the switch 6 is given priority and always has the best air conditioning condition, thereby maintaining a certain degree of comfort in non-priority spaces. It is.
上記した説明では、空調状態検出手段としてサ
ーミスタを用いたが、他の温度センサ例えば白金
線等でもよいし、また、温度のみならず湿度セン
サ等であつてもよい。また優先空間は実施例では
一つだけ指定できるが、空調機能力等によつては
複数の空間を指定できるようにもできる。また圧
縮機を容量可変としたが、単一容量圧縮機を用い
る場合でも本発明の主旨には影響がなく同一の結
果が得られる。 In the above description, a thermistor is used as the air conditioning state detection means, but other temperature sensors such as platinum wires may be used, and not only temperature sensors but also humidity sensors and the like may be used. Further, in the embodiment, only one priority space can be designated, but depending on the air conditioning function, etc., it is possible to designate a plurality of spaces. Further, although the capacity of the compressor is variable, even if a single capacity compressor is used, the gist of the present invention is not affected and the same results can be obtained.
第３図の動作タイミングチヤートを用いて本発
明を更に詳細に説明する。同図イは温度を示し、
図中実線T3は優先空間３Ｒの空間温度、二点鎖
線T2は空間２Ｒの温度、一点鎖線T4は空間４Ｒ
の温度であり、Ｔr１，Ｔr２は空調判定基準設定
手段７により設定される設定温度を示す。温度が
Ｔr１とＴr２の間にはいれば、空間は快適状態と
なる。Ｔr１，Ｔr２は各空間に対し別々にセツト
することもできるが、この例では、各空間温度を
Ｔr１に対して正規化した温度を示す。すなわ
ち、各空間温度T′と各基準温度Ｔr12，Ｔr13，T14
との温度差の形で示されている。Ｔr２はＴr１に
対して一定の温度差をもち、各空間に対する相異
はない。第３図ロ，ハ，ニは各々電磁弁１Ｅ，１
Ｄ，１Ｆの開閉状態を示す。 The present invention will be explained in more detail using the operation timing chart shown in FIG. In the same figure, A indicates the temperature.
In the figure, the solid line T 3 is the space temperature of the priority space 3R, the two-dot chain line T 2 is the temperature of the space 2R, and the one-dot chain line T 4 is the space temperature of the space 4R.
T r1 and T r2 indicate the set temperatures set by the air conditioning criterion setting means 7. If the temperature is between T r1 and T r2 , the space will be in a comfortable state. Although T r1 and T r2 can be set separately for each space, in this example, the temperature of each space is normalized to T r1 . That is, each space temperature T' and each reference temperature T r12 , T r13 , T 14
It is shown in the form of the temperature difference between T r2 has a constant temperature difference with respect to T r1 , and there is no difference for each space. Figure 3 B, C and D are solenoid valves 1E and 1, respectively.
D, shows the open/closed state of 1F.
時刻T0より３空間の冷房運転がされている。
ここで優先空間３Ｒの温度T3は上昇傾向にあ
り、しかも快適ゾーンから離脱していく傾向にあ
る。そこで、時刻t1で優先制御をかける必要性が
マイコン５Ｐで認識され、優先制御運転モードに
はいる。すなわち、この時点ではT2＞T4なの
で、空間４Ｒに対応する電磁弁１Ｄを閉じて、二
空間運転とし、一空間当りの冷房能力を増大せし
める。このことにより、今迄空間４Ｒに消費され
ていた能力が、空間２，３に割当てられ、T2，
T3は下降傾向をとる。マイコン５Ｐは所定の時
間Δｔが経過する（時刻t2）と、非優先空間の冷
房運転を切換えるため、電磁弁１Ｄを開き、電磁
弁１Ｆを閉じる。このことにより空間４Ｒの温度
T4は下降し、T2は上昇傾向となる。時刻t2より
Δｔ経過すると、電磁弁１Ｄ，１Ｆの開閉関係が
逆転する。マイコン５Ｐ内部のΔｔ用のタイマは
時刻t3で再びトリガされて、時刻（t3＋Δｔ）
で、電磁弁１Ｄ，１Ｆの開閉関係を再び逆転しよ
うとする。しかし時刻（t3＋Δｔ）に達する前
に、優先空間３Ｒの温度T3が温度Ｔr１に達する
ので、この時点で電磁弁１Ｅを閉じ、この空間に
対する冷房運転は停止する。このためもはや優先
制御の必要性はなくなり、それまで時刻t3以降閉
じていた電磁弁１Ｄを開き、空間２Ｒ，４Ｒとも
に冷房運転状態となり、両空間温度T2，T4とも
に低下する。時刻t5ではT4が温度Ｔr１に達する
ので、もはや冷房運転の必要がないとし、電磁弁
１Ｄを閉じる。 Cooling operation for three spaces has been performed since time T 0 .
Here, the temperature T 3 of the priority space 3R is on the rise, and moreover, it is on the move away from the comfort zone. Therefore, at time t1 , the need for priority control is recognized by the microcomputer 5P, and the priority control operation mode is entered. That is, at this point, T 2 >T 4 , so the solenoid valve 1D corresponding to the space 4R is closed, two-space operation is performed, and the cooling capacity per space is increased. As a result, the capacity that had been consumed in space 4R until now is allocated to spaces 2 and 3, and T 2 ,
T 3 takes a downward trend. When a predetermined time Δt has elapsed (time t 2 ), the microcomputer 5P opens the solenoid valve 1D and closes the solenoid valve 1F in order to switch the cooling operation of the non-priority space. As a result, the temperature of space 4R
T 4 is a downward trend and T 2 is an upward trend. After Δt has elapsed from time t 2 , the opening/closing relationship of the solenoid valves 1D and 1F is reversed. The timer for Δt inside the microcomputer 5P is triggered again at time t 3 and the timer (t 3 + Δt)
Then, the opening/closing relationship of the solenoid valves 1D and 1F is attempted to be reversed again. However, before the time (t 3 +Δt) is reached, the temperature T 3 of the priority space 3R reaches the temperature T r1 , so at this point the solenoid valve 1E is closed and the cooling operation for this space is stopped. Therefore, there is no longer a need for priority control, and the solenoid valve 1D, which had been closed since time t3 , is opened, and both spaces 2R and 4R enter a cooling operation state, and both space temperatures T2 and T4 decrease. At time t5 , T4 reaches temperature Tr1 , so it is assumed that cooling operation is no longer necessary, and solenoid valve 1D is closed.
以上のように、優先空間として指定された空間
が最良状態にある間は、他の空間との優先関係は
存在せず、通常の三室運転となつている。もしも
空調負荷大となり、指定された空間の空調状態が
最良状態から逸脱した場合のみ、他の空間に対応
する電磁弁の時分割制御を行なつて、他の空間の
永久的冷房運転停止を免がれている。 As described above, while the space designated as the priority space is in the best condition, there is no priority relationship with other spaces, and normal three-room operation is performed. If the air conditioning load becomes large and the air conditioning condition of the designated space deviates from the best condition, time-sharing control of the solenoid valves corresponding to other spaces is performed to avoid a permanent shutdown of cooling operations in other spaces. It's broken.
以上のように本発明は圧縮機と３個以上の冷媒
流量制御手段を有する１台の室外ユニツトと、前
記冷媒流量制御手段に対応した３台以上の室内ユ
ニツトによりなる空調機により空調されている複
数の空間の夫々の空調状態を検出する空調状態検
出手段と、前記空間のうちの特定の空間を選択す
る優先空間選択手段と、前記優先空間選択手段で
選択された優先空間の前記空調状態検出手段で検
出した空調状態が最良状態にないとき、前記優先
空間以外の空間に対応する前記冷媒流量制御手段
を時分割制御する制御回路とを備え、前記制御回
路は、時分割制御時、前記優先空間以外の空間で
空調状態が最良状態に近い空間に対応する前記冷
媒流量制御手段を最初にオフする構成としたもの
であるので、優先空間は常に最良空調状態に保た
れ、しかも優先制御に入つたとき、非優先室のう
ちまず最良状態に近いものをオフすることによ
り、遠いものの運転を維持できるので、非優先室
の空調状態をほぼ同じ状態にできる、すなわち全
室ほぼ同じ快適状態が得られる。 As described above, the present invention provides air conditioning using an air conditioner consisting of one outdoor unit having a compressor and three or more refrigerant flow rate control means, and three or more indoor units corresponding to the refrigerant flow rate control means. air conditioning state detection means for detecting the air conditioning state of each of a plurality of spaces; priority space selection means for selecting a specific space among the spaces; and air conditioning state detection for the priority space selected by the priority space selection means. a control circuit for time-sharing control of the refrigerant flow rate control means corresponding to spaces other than the priority space when the air conditioning state detected by the means is not the best state; Since the refrigerant flow rate control means corresponding to the space other than the space where the air conditioning condition is close to the best condition is turned off first, the priority space is always kept in the best air conditioning condition, and moreover, the priority control is not started. When a problem occurs, by first turning off the non-priority rooms that are in the best condition, the operation of the farthest rooms can be maintained, so the air conditioning conditions in the non-priority rooms can be kept almost the same, that is, all the rooms can be in almost the same comfortable state. It will be done.
第１図は従来の空調機の概略構成図、第２図は
本発明の一実施例における空調機用制御装置の概
略説明図、第３図イ，ロ，ハ，ニはそれぞれ本発
明の一実施例の動作タイミングチヤート図であ
る。
１……室外ユニツト、１Ａ……容量可変圧縮
機、１Ｄ，１Ｅ，１Ｆ……電磁弁、２，３，４…
…室内ユニツト、２Ｔ，３Ｔ，４Ｔ……サーミス
タ（空調状態検出手段）、５……制御回路、６…
…スイツチ（優先空間選択手段）。
Fig. 1 is a schematic configuration diagram of a conventional air conditioner, Fig. 2 is a schematic explanatory diagram of an air conditioner control device according to an embodiment of the present invention, and Fig. 3 A, B, C, and D are each an embodiment of the present invention. FIG. 3 is an operation timing chart of the embodiment. 1... Outdoor unit, 1A... Variable capacity compressor, 1D, 1E, 1F... Solenoid valve, 2, 3, 4...
...Indoor unit, 2T, 3T, 4T...Thermistor (air conditioning state detection means), 5...Control circuit, 6...
...Switch (priority space selection means).
Claims (1)
る１台の室外ユニツトと、前記冷媒流量制御手段
に対応した３台以上の室内ユニツトによりなる空
調機により空調されている複数の空間の夫々の空
調状態を検出する空調状態検出手段と、前記空間
のうちの特定の空間を選択する優先空間選択手段
と、前記優先空間選択手段で選択された優先空間
の前記空調状態検出手段で検出した空調状態が最
良状態にないとき、前記優先空間以外の空間に対
応する前記冷媒流量制御手段を時分割制御する制
御回路とを備え、前記制御回路は、時分割制御
時、前記優先空間以外の空間で空調状態が最良状
態に近い空間に対応する前記冷媒流量制御手段を
最初にオフする構成とした空調機用制御装置。1 Each of a plurality of spaces is air-conditioned by an air conditioner consisting of one outdoor unit having a compressor and three or more refrigerant flow rate control means, and three or more indoor units corresponding to the refrigerant flow rate control means. an air conditioning state detection means for detecting an air conditioning state; a priority space selection means for selecting a specific space among the spaces; and an air conditioning state detected by the air conditioning state detection means of the priority space selected by the priority space selection means. a control circuit that time-divisionally controls the refrigerant flow rate control means corresponding to a space other than the priority space when the refrigerant flow rate control means is not in the best state, and the control circuit controls the air conditioning in the space other than the priority space during the time-division control. An air conditioner control device configured to first turn off the refrigerant flow rate control means corresponding to a space whose state is close to the best state.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP12958778A JPS5556549A (en) | 1978-10-20 | 1978-10-20 | Controller for air conditioner |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP12958778A JPS5556549A (en) | 1978-10-20 | 1978-10-20 | Controller for air conditioner |
Publications (2)
| Publication Number | Publication Date |
|---|---|
| JPS5556549A JPS5556549A (en) | 1980-04-25 |
| JPS6113543B2 true JPS6113543B2 (en) | 1986-04-14 |
Family
ID=15013126
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| JP12958778A Granted JPS5556549A (en) | 1978-10-20 | 1978-10-20 | Controller for air conditioner |
Country Status (1)
| Country | Link |
|---|---|
| JP (1) | JPS5556549A (en) |
Citations (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPS4822101U (en) * | 1971-07-22 | 1973-03-13 |
Family Cites Families (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPS5637240Y2 (en) * | 1976-12-25 | 1981-09-01 |
-
1978
- 1978-10-20 JP JP12958778A patent/JPS5556549A/en active Granted
Patent Citations (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPS4822101U (en) * | 1971-07-22 | 1973-03-13 |
Also Published As
| Publication number | Publication date |
|---|---|
| JPS5556549A (en) | 1980-04-25 |
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