JPS6291744A - Signal transmitting device for air-conditioning machine - Google Patents
Signal transmitting device for air-conditioning machineInfo
- Publication number
- JPS6291744A JPS6291744A JP60231805A JP23180585A JPS6291744A JP S6291744 A JPS6291744 A JP S6291744A JP 60231805 A JP60231805 A JP 60231805A JP 23180585 A JP23180585 A JP 23180585A JP S6291744 A JPS6291744 A JP S6291744A
- Authority
- JP
- Japan
- Prior art keywords
- indoor
- outdoor
- photocoupler
- controller
- transmission element
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Pending
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Landscapes
- Air Conditioning Control Device (AREA)
Abstract
Description
【発明の詳細な説明】
〔産業上の利用分野〕
この発明は分離形空気調和機の室内側機器と室外側機器
間の信号を伝送する装置に関するものである。DETAILED DESCRIPTION OF THE INVENTION [Field of Industrial Application] The present invention relates to a device for transmitting signals between indoor equipment and outdoor equipment of a separate air conditioner.
第５図は例えば実開昭５７〜１２５５６号公報に示され
た従来の空気調和機の信号伝送装置を示す回路図である
。FIG. 5 is a circuit diagram showing a conventional air conditioner signal transmission device disclosed in, for example, Japanese Utility Model Application Publication No. 57-12556.
図中、（１）は交流電源、（２）は室外に設けられ電力
１ｔ３１． ＋４１によって電源＋１１に接続された圧
縮機、室外用送風機等の室外側負荷、（５）は室外に設
けられ外気温度を検出しその信号を信号線（６）で室内
側へ送出する熱動リードスイッチからなる温度スイッチ
、（７）は室内側に設けられホトダイオード（７Ａ）及
びホトトランジスタ（７Ｂ）からなるホトカブラで。In the figure, (1) is an AC power supply, and (2) is an outdoor power supply with a power of 1t31. Outdoor loads such as compressors and outdoor blowers are connected to the power supply +11 by +41, and (5) is a thermal lead installed outdoors that detects the outside air temperature and sends the signal to the indoor side via signal line (6). The temperature switch (7) is a photo coupler that is installed on the indoor side and consists of a photodiode (7A) and a phototransistor (7B).
ホトダイオード（７Ａ）は交流ｔｉｕ＋と信号線（６）
の間に接続されている。（８）は室内側に設けられホト
トランジスタ（７Ｂ）の信号を入力する学内側制御器、
（９）は室内側制御器（８）の出力により動作するリレ
ーで。Photodiode (7A) connects AC tiu+ and signal line (6)
connected between. (8) is an on-campus controller that is installed on the indoor side and inputs the signal of the phototransistor (7B);
(9) is a relay operated by the output of the indoor controller (8).
（９ａ）はその常開接点であり、電源ｆｌ＋と電力線（
３）の間に挿入されている。(9a) is its normally open contact, which connects the power supply fl+ and the power line (
It is inserted between 3).
従来の空気調和機の信号伝送装置は上記のように構成さ
れ、空気調和機の運転指令が出ると、室内側制御器（８
）から信号が発せられ、リレー＋９１は付勢されて接点
（９ａ）は閉成する。これで、室外側負荷（２）は動作
し空気調和が行われる。Conventional air conditioner signal transmission devices are configured as described above, and when an air conditioner operation command is issued, the indoor controller (8
), relay +91 is energized and contact (9a) is closed. Now, the outdoor load (2) operates and air conditioning is performed.
室外の温度が一定値以上になると、温度スイッチ（５）
は閉成するので、ホトダイオード（７Ａ）は通電されて
点灯し、ホトトランジスタ（７Ｂ）は導通して信号を室
内側制御器（８）に送る。これで、室内側制御器（８）
から信号が発せられ、リレー（９）は消勢され。When the outdoor temperature exceeds a certain value, the temperature switch (5)
is closed, the photodiode (7A) is energized and lights up, and the phototransistor (7B) is conductive and sends a signal to the indoor controller (8). Now the indoor controller (8)
A signal is emitted from the relay (9) and the relay (9) is deenergized.
接点（９ａ）は開放して室外側負荷（２）は停止する。The contact (9a) is opened and the outdoor load (2) is stopped.
このようにして、高圧の交流電源（１）とは非接触状態
で室外の情報を室内側制御器（８）が受信できるもので
ある。In this way, the indoor controller (8) can receive outdoor information without contacting the high-voltage AC power source (1).
上記のような従来の空気調和機の信号伝送装置では、室
外温度等の室外側の情報だけを室内側に送信するもので
あり、互いに双方向に送受信することはできない。室外
温度が一定値以上であるか否か等の単純な信号を送信す
るだけのもので、複雑な多量の情報を送受信することは
できない。′電力線＋３１． ＋４１の極性を入れ違え
ると送受信動作はできない等の問題点がある。The conventional signal transmission device for an air conditioner as described above only transmits information from the outdoor side, such as the outdoor temperature, to the indoor side, and cannot transmit and receive information bidirectionally. It only transmits a simple signal such as whether the outdoor temperature is above a certain value, and cannot transmit or receive a large amount of complex information. 'Power line +31. If the polarity of +41 is reversed, there are problems such as transmission and reception operations not being possible.
この発明は上記問題点を解決するためになされたもので
、室内外の情報を双方向に送受信できると共に９互いに
必要とする複雑な多量の情報を独立して同時に送受信で
き、かつ室内外を結ぶ′電力線の極性を入れ違えても正
常に動作できるようにした空気調和機の信号伝送装置を
提供することを目的とする。This invention was made to solve the above problems, and is capable of bidirectionally transmitting and receiving information indoors and outdoors, as well as independently and simultaneously transmitting and receiving a large amount of complex information required by each other, and connecting indoors and outdoors. 'An object of the present invention is to provide a signal transmission device for an air conditioner that can operate normally even if the polarity of the power line is reversed.
この発明に係る空気調和機の信号伝送装置は。 A signal transmission device for an air conditioner according to the present invention is a signal transmission device for an air conditioner.
室内側と室外側に、一方向に電圧が印加ちれた状態で送
信可能となる送信素子と、上記方向と反対方向に電圧が
印加されると受信信号を送出する受信素子からなる室内
側伝送素子と、これと同様の室外側伝送素子を設置し２
室内側又は室外側に上記伝送素子と同様の補助伝送素子
を設置し、室内側伝送素子の一端を交流電源の第１の端
子に、室外側伝送素子の一端を第２の端子に接続し、補
助伝送素子の一端を同側の室内側又は室外側伝送素子が
接続された端子と異なる端子に接続し、上記各伝送素子
の他端を互いに接続したものである。Indoor transmission consists of a transmitting element that can transmit when voltage is applied in one direction to the indoor and outdoor sides, and a receiving element that transmits a received signal when voltage is applied in the opposite direction to the above direction. element and a similar outdoor transmission element.
An auxiliary transmission element similar to the above transmission element is installed on the indoor side or outdoor side, one end of the indoor transmission element is connected to the first terminal of the AC power supply, one end of the outdoor transmission element is connected to the second terminal, One end of the auxiliary transmission element is connected to a terminal different from the terminal to which the indoor or outdoor transmission element on the same side is connected, and the other ends of the respective transmission elements are connected to each other.
この発明においては、室内側と室外側にそれぞれ逆並列
接続された伝送素子は、互いに交流電源の半サイクル間
動作するので、この間に独立して送信及び受信が行われ
る。また、電力線の極性が逆に接続されたときは、補助
伝送素子が室内側伝送素子又は室外側伝送素子に代わっ
て動作する。In this invention, the transmission elements connected in antiparallel to the indoor side and the outdoor side each operate for half a cycle of the AC power supply, so that transmission and reception are performed independently during this period. Further, when the polarity of the power line is reversed, the auxiliary transmission element operates in place of the indoor transmission element or the outdoor transmission element.
また、室内側又は室外側発信素子が動作すると。Also, when the indoor side or outdoor side transmitting element operates.
この信号は補助受信素子で受信されて同側の制御器に送
出される。This signal is received by the auxiliary receiving element and sent to the controller on the same side.
第１図〜第４図はこの発明の一実施例を示す図で、第１
図は回路図、第２図は正規配線時の伝送経路説明図、第
３図は送受信サイクル説明図、第４図は誤配線時の伝送
経路説明図であり、（１］〜（４）。Figures 1 to 4 are diagrams showing one embodiment of the present invention.
The figure is a circuit diagram, FIG. 2 is an explanatory diagram of the transmission route in the case of normal wiring, FIG. 3 is an explanatory diagram of the transmission/reception cycle, and FIG. 4 is an explanatory diagram of the transmission route in the case of incorrect wiring, (1) to (4).
＋６１． ＋８１は上記従来装置と同様のものである。+61. +81 is the same as the above conventional device.
第１図〜第４図中２Ｑυは電源（１）に接続され室内側
制御器（８）により制御される室内用送風機１表示器等
の室内側負荷、αりは室外側に設けられ室外側負荷（２
）を制御する室外側制御器、ＯＪは室内側に設けられ一
方向に電圧が印加された状態で入力信号があるとこれを
非接触状態で検知して送出する案内側送信素子で、この
実施例ではそれぞれホトトランジスタ（１ｓ Ｂ）及び
ホトダイオード（１３Ａ）からなるホトカプラが用いら
れている。α尋は同じくホトダイオード（１４Ａ）及び
ホトトランジスタ（１４Ｂ）からなる室内側受信素子を
構成する受信用ホトカプラで、ホトトランジスタ（１５
Ｂ）とホトダイオード（１４Ａ）は互いに逆並列に接続
されその一端は電流制限用抵抗α９を介して電源＋１１
の一端に接続されている。また、ホトダイオード（１５
Ａ）は電流制限用抵抗ａｅを介して室内側制御器（８）
に接続され、ホトトランジスタ（１４Ｂ）は室内側制御
器（８）に接続され、かつ電流制限用抵抗αηを介して
直流電源に接続されている。そして、ホトカプラα謙、
α４で室内側伝送素子αｅが構成されている。α！Ｊ、
ｃｘＪは室外側に設けられそれぞれホトダイオード（
１９Ａ） 、ホトトランジスタ（１９Ｂ）及びホトダイ
オード（２ＯＡ） 。In Figures 1 to 4, 2Qυ is the indoor load such as the indoor blower 1 indicator connected to the power supply (1) and controlled by the indoor controller (8), and α is the load on the indoor side that is installed on the outdoor side. Load (2
), OJ is a guide-side transmitting element that is installed on the indoor side and detects and transmits an input signal in a non-contact state when a voltage is applied in one direction. In the example, photocouplers each consisting of a phototransistor (1s B) and a photodiode (13A) are used. α fathom is a receiving photocoupler that constitutes the indoor side receiving element, which also consists of a photodiode (14A) and a phototransistor (14B).
B) and the photodiode (14A) are connected in antiparallel to each other, and one end is connected to the power supply +11 via a current limiting resistor α9.
connected to one end of the In addition, a photodiode (15
A) is connected to the indoor controller (8) via the current limiting resistor ae.
The phototransistor (14B) is connected to the indoor controller (8), and is also connected to a DC power source via a current limiting resistor αη. And, photocoupler αken,
α4 constitutes an indoor transmission element αe. α! J.
cxJ is installed on the outdoor side, and each photodiode (
19A), phototransistor (19B) and photodiode (2OA).
ホトトランジスタ（２０Ｂ）からなる送信用及び受信用
ホトカプラで、ホトトランジスタ（１９Ｂ）とホトダイ
オード（２０Ａ）は互いに逆並列に接続されその一端は
電流制限用抵抗Ｑυを介して電源＋１）の他端に接続さ
れている。また、ホトダイオード（１９Ａ）は電流制限
用抵抗器を介して室外側制御器ａ’ａに接続され、ホト
トランジスタ（２０Ｂ）は室外側制御器側に接続され、
かつ電流制限用抵抗のを介して直流電源に接続されてい
る。そして、ホトカプラα９゜■で室外側伝送素子（至
）が構成されている。また。A transmitting and receiving photocoupler consisting of a phototransistor (20B), the phototransistor (19B) and photodiode (20A) are connected in antiparallel to each other, and one end is connected to the other end of the power supply +1 via a current limiting resistor Qυ. It is connected. Further, the photodiode (19A) is connected to the outdoor controller a'a via a current limiting resistor, and the phototransistor (20B) is connected to the outdoor controller side.
It is also connected to a DC power supply via a current limiting resistor. The outdoor transmission element (toward) is constituted by the photocoupler α9°■. Also.
室内側及び室外側伝送素子＋ＩＩ、 ｃ！４）の他端は
信号線（６）によシ互いに接続されている。（ハ）、（
１）は室内側に設けられそれぞれホトダイオード（２５
Ａ） 、ホトトランジスタ（２５Ｂ）及びホトダイオー
ド（２６Ａ） 。Indoor and outdoor transmission elements +II, c! 4) The other ends are connected to each other by a signal line (6). (c), (
1) are provided on the indoor side and each has a photodiode (25
A), phototransistor (25B) and photodiode (26A).
ホトトランジスタ（２６Ｂ）からなるホトカプラで。A photocoupler consisting of a phototransistor (26B).
Ｃ；
それぞれホトカプラ（１３，（１４１％−並列に接続さ
れている。ただし、その逆並列回路の一端は電流制限用
抵抗＠を介して電源ｆｌｌの他端に接続されている。C; The photocouplers (13, (141%) are connected in parallel, respectively. However, one end of the anti-parallel circuit is connected to the other end of the power supply fll via a current limiting resistor @.
そして、ホトカプラ６、（イ）で補助伝送素子（支）が
構成されている。The photocoupler 6 (a) constitutes an auxiliary transmission element (support).
次に、この実施例の動作を説明する。Next, the operation of this embodiment will be explained.
電力Ｉ＠＋３１． ＋４１が第１図のように正規に接続
されているときの伝送経路は第２図のようになる。Electric power I@+31. When +41 is normally connected as shown in FIG. 1, the transmission path is as shown in FIG. 2.
今、室内側制御器（８）から信号が発せられると。Now, when a signal is issued from the indoor controller (8).
送信用ホトカプラＱ３は導通する。これで、電力線（４
）が正のときには、 ＋１ｌ−１４１−Ｃ２υ−（２０
Ａ）−（６）−（１３Ｂ） −ａｃｊ−＋ｔ＋の回路を
通じて電流が流れ、ホトカプラ（イ）は導通し、この受
信信号は室外側制御器側に送出される。この状態は電源
（１）の半サイクル間継続し、室外側制御器ａａは室内
側が送信開始することを検知する。The transmitting photocoupler Q3 becomes conductive. Now the power line (4
) is positive, +1l-141-C2υ-(20
A current flows through the circuit A)-(6)-(13B)-acj-+t+, the photocoupler (A) becomes conductive, and this received signal is sent to the outdoor controller side. This state continues for half a cycle of the power supply (1), and the outdoor controller aa detects that the indoor side starts transmitting.
次の半サイクルに入ると、電（３；ｔｆｉｌの極性が反
対になシ、電力線（４）は負になるので、ホトカプラα
Ｊの状態に関係な（、ホトカプラ■は不導通となる。When entering the next half cycle, the polarity of the power line (3; tfil is reversed and the power line (4) becomes negative, so the photocoupler α
Regardless of the state of J, the photocoupler ■ becomes non-conductive.
そして１次の半サイクルから室内側制御器（８）は信号
を送出し、ホトカプラａ３は導通、不導通を繰り返して
信号を発信し、ホトカプラ■はこれに応じて導通、不導
通を繰り返すことにより、室外側制御器α２は上記信号
を受信する。このとき、送信データは直列に送られるの
で、そのデータの中にあらかじめ定めたコードに従って
情報を送ることができる。また、送信の終了も、コード
を送ることにより、室外側制御器α２で送信終了を検知
することができる。Then, from the first half cycle, the indoor controller (8) sends a signal, the photocoupler a3 repeats conduction and non-conduction and sends the signal, and photocoupler ■ responds by repeating conduction and non-conduction. , the outdoor controller α2 receives the above signal. At this time, since the transmission data is sent serially, information can be sent according to a predetermined code in the data. Furthermore, by sending a code, the outdoor controller α2 can detect the end of transmission.
室外側から室内側への送信も同様に説明でき。Transmission from the outdoor side to the indoor side can be explained in the same way.
室外側制御器α望からの信号は、を力線（３）が正の半
サイクル間にホトカプラα９を介して室内側へ送信し、
ホトカプラαるを通して室内側制御器（８）で受信され
る。The signal from the outdoor controller α is transmitted to the indoor side via the photocoupler α9 during the positive half cycle of the line of force (3).
The signal is received by the indoor controller (8) through the photocoupler α.
このようにして２室内外の送受信は電源ｆｌ）の半サイ
クルごとに可能となるので、信号は独立して同時に伝送
されることになる。In this way, transmission and reception between the two interiors and exteriors is possible every half cycle of the power supply fl), so that signals are transmitted independently and simultaneously.
第３図は電源（１）のサイクルを示し、Ａは例えば電力
線（４）が正になる半サイクルを示し、Ｂは電力線（３
）が正になる半サイクルを示す。室内側制御器（８）は
半サイクルＡでホトカプラαＪを導通させて送信すると
、室外側制御器α２はホトカプラ圓を通して受信する。Figure 3 shows the cycle of the power supply (1), where A indicates the half cycle in which the power line (4) becomes positive, and B indicates the half cycle in which the power line (4) becomes positive;
) is positive. When the indoor controller (8) transmits by making the photocoupler αJ conductive in half cycle A, the outdoor controller α2 receives the signal through the photocoupler circle.
そして、半サイクルＢでは室内側制御器圓はホトカプラ
住９を導通させて送信し、室内側制御器（８）はホトカ
プラａ４を介して受信する。Then, in half cycle B, the indoor controller (8) connects the photocoupler 9 to transmit, and the indoor controller (8) receives the signal via the photocoupler a4.
次に、電力線ｔ３＋、 （４１の極性が逆に接続される
と。Next, power line t3+, (if the polarity of 41 is reversed).
その伝送経路は第４図のようになる。The transmission path is as shown in FIG.
この場合、ホトカプラ（ハ）はホトカプラαＪに代わっ
て、ホトカプラ（支）はホトカプラα養に代わって動作
する。すなわち、１！力線（４）が正のときは、室内側
制御器（８）はホトカプラ（ハ）を通して送信し、室外
側制御器α３はホトカプラ■を介して受信する。次の半
サイクルでは、電力線（３）が正になるので、室外側か
ら室内側への送信が可能になる。つまり。In this case, the photocoupler (c) operates in place of the photocoupler αJ, and the photocoupler (support) operates in place of the photocoupler αJ. In other words, 1! When the line of force (4) is positive, the indoor controller (8) transmits through the photocoupler (C), and the outdoor controller α3 receives through the photocoupler (3). In the next half cycle, the power line (3) becomes positive, allowing transmission from the outdoor side to the indoor side. In other words.
電力線＋３１． ＋４１が逆に接続されても、室内外の
送受信には全く影響がなく、補助伝送素子＠を介して正
常に行われる。Power line +31. Even if +41 is connected in reverse, there is no effect on indoor and outdoor transmission and reception, and normal transmission is performed via the auxiliary transmission element @.
また、第１図の場合、室内側制御器（８）が送信してホ
トカプラ（１３が導通すると、（１）−■−（２６Ａ）
−（１３Ｂ）−αＳ −ｆｌ）の回路に電流が流れる
ので、ホトカプラ（至）は導通し、その信号は室内側制
御器（８）に送られる。これにより、室内側制御器（８
）は送信したデータをホトカブラ翰で受信して監視する
ことができる。In addition, in the case of Fig. 1, when the indoor controller (8) transmits a signal to the photocoupler (13), (1) - ■ - (26A)
-(13B)-αS-fl), the photocoupler (to) becomes conductive and the signal is sent to the indoor controller (8). This allows the indoor controller (8
) can receive and monitor the transmitted data with the Hotokabura Kan.
なお、上記実施例では、誤配線対応用の補助伝送索子■
を室内側に設置したが、これを室外側に設置することも
可能である。ただし、このとき抵抗器の一端は第１図の
電源＋１１端子とは異なる端子（電力線（３）の側）に
接続される。また、補助伝送素子＠全室内側及び室外側
の一方だけでなく１両方に設置してもよい。この場合は
１両方とも送信データを監視できることになる。In addition, in the above embodiment, the auxiliary transmission cable ■
Although it was installed indoors, it is also possible to install it outside. However, at this time, one end of the resistor is connected to a terminal (on the power line (3) side) different from the power supply +11 terminal in FIG. Further, the auxiliary transmission element @all may be installed not only on one side of the room or on the outside, but also on both sides. In this case, both can monitor transmitted data.
以上説明したとおりこの発明では、室内側と室外側に、
一方向に電圧が印加された状態で送信可能となる送信素
子と、上記方向と反対方向に電圧が印加されると受信信
号を送出する受信素子からなる室内側伝送素子と、これ
と同様の室外側伝送素子を設置し、交流電源の半サイク
ル間に送信し。As explained above, in this invention, on the indoor side and the outdoor side,
An indoor transmission element consisting of a transmitting element that can transmit when a voltage is applied in one direction, a receiving element that transmits a received signal when a voltage is applied in the opposite direction to the above, and a similar indoor transmission element. Install the outer transmission element and transmit during half cycle of AC power.
次の半サイクル間に受信するようにすると共に。as well as to receive during the next half cycle.
上記伝送素子と同様の補助伝送素子を設置したものであ
る。An auxiliary transmission element similar to the transmission element described above is installed.
これにより、送信と受信を独立して同時に行うことがで
きると共に、１１Ｌ力線の極性に関係なく工事すること
ができる。また、送信データを監視できるので、信号伝
送の信頼性を向上させることができる等の効果がある。This allows transmission and reception to be carried out independently and simultaneously, and construction work can be carried out regardless of the polarity of the 11L line of force. Furthermore, since the transmitted data can be monitored, there is an effect that the reliability of signal transmission can be improved.
第１図〜第４図はこの発明による空気調和機の信号伝送
装置の一実施例を示す図で、第１図は回路図、第２図は
正規配線時の伝送経路説明図、第３図は送受信サイクル
説明図、第４図は誤配線時の伝送経路説明図、第５図は
従来の空気調和機の信号伝送装置を示す回路図である。
図中、（１）は交流電源、（２）は室外側負荷、 ＋３
１．（４）は電力線、（６）は信号線、（８）は室内側
制御器、＜ｌυは室内側負荷、α２は室外側制御器、α
３は室内側送信素子（ホトカプラ）、Ｑ４１は室内側受
信素子（ホトカプラ）、αｅは室内側伝送素子、 ｄ９
は室外側送信素子（ホトカプラ）、■は室外側受信素子
（ホトカプラ）、 Ｇ！４］は室外側伝送素子、■は補
助送信素子（ホトカプラ）、（至）は補助受信素子（ホ
トカプラ）、＠は補助伝送素子である。
なお２図中同一符号は同一部分を示す。
第２図
第 ３２
第４図Figures 1 to 4 are diagrams showing an embodiment of a signal transmission device for an air conditioner according to the present invention, in which Figure 1 is a circuit diagram, Figure 2 is an explanatory diagram of a transmission path during normal wiring, and Figure 3 4 is an explanatory diagram of a transmission/reception cycle, FIG. 4 is an explanatory diagram of a transmission path in case of incorrect wiring, and FIG. 5 is a circuit diagram showing a conventional signal transmission device for an air conditioner. In the figure, (1) is AC power supply, (2) is outdoor load, +3
1. (4) is the power line, (6) is the signal line, (8) is the indoor controller, <lυ is the indoor load, α2 is the outdoor controller, α
3 is the indoor transmitting element (photocoupler), Q41 is the indoor receiving element (photocoupler), αe is the indoor transmitting element, d9
is an outdoor transmitting element (photocoupler), ■ is an outdoor receiving element (photocoupler), G! 4] is an outdoor transmission element, ■ is an auxiliary transmission element (photocoupler), (to) is an auxiliary reception element (photocoupler), and @ is an auxiliary transmission element. Note that the same reference numerals in the two figures indicate the same parts. Figure 2 Figure 32 Figure 4
Claims (2)
制御器と、室内側伝送素子とを設置し、この室内側伝送
素子を一方向に電圧が印加された状態で上記室内側制御
器から入力信号があるとこれを非接触状態で検知して送
出する室内側送信素子と、上記方向と反対方向に電圧が
印加されると入力信号を上記室内側制御器へ非接触状態
で送出する室内側受信素子とで構成し、室外側に、室外
側負荷と、これを制御する室外側制御器と、室外側伝送
素子とを設置し、この室外側伝送素子を一方向に電圧が
印加された状態で上記室外側制御器からの信号があると
これを非接触状態で検知して送出する室外側送信素子と
、上記方向と反対方向に電圧が印加されると入力信号を
上記室外側制御器へ非接触状態で送出する室外側受信素
子とで構成し、上記室内側又は室外側に、上記室内側伝
送素子又は室外側伝送素子と同様に構成されかつそれぞ
れ並列に配置された補助送信素子及び補助受信素子から
なる補助伝送素子を設置し、上記室内側負荷と室外側負
荷をそれぞれ交流電源に接続し、上記室内側伝送素子の
一端を上記電源の第１の端子に接続し、上記室外側伝送
素子の一端を上記電源の第２の端子に接続し、上記補助
伝送素子の一端を上記第１及び第２の端子の内この補助
伝送素子と同側の上記室内側伝送素子又は室外側伝送素
子が接続された端子とは異なる端子に接続し、上記室内
側伝送素子、室外側伝送素子及び補助伝送素子の他端を
互いに接続してなる空気調和機の信号伝送装置。(1) An indoor load, an indoor controller for controlling it, and an indoor transmission element are installed on the indoor side, and the indoor transmission element is connected to the indoor side with a voltage applied in one direction. When there is an input signal from the controller, there is an indoor transmitting element that detects it in a non-contact state and sends it out, and when a voltage is applied in the opposite direction to the above direction, the input signal is sent to the indoor controller in a non-contact state. The outdoor side load, the outdoor side controller that controls it, and the outdoor side transmission element are installed on the outdoor side. When there is a signal from the outdoor controller in the applied state, the outdoor transmitter element detects the signal in a non-contact state and sends it out, and when a voltage is applied in the opposite direction to the above direction, the input signal is transmitted to the indoor controller. An auxiliary device configured in the same manner as the indoor transmission device or the outdoor transmission device and arranged in parallel on the indoor side or the outdoor side. installing an auxiliary transmission element consisting of a transmitting element and an auxiliary receiving element, connecting the indoor load and the outdoor load to an AC power source, and connecting one end of the indoor transmission element to a first terminal of the power source; One end of the outdoor transmission element is connected to a second terminal of the power supply, and one end of the auxiliary transmission element is connected to the indoor transmission element on the same side as the auxiliary transmission element among the first and second terminals. A signal transmission device for an air conditioner, which is connected to a terminal different from the terminal to which the outdoor transmission element is connected, and the other ends of the indoor transmission element, the outdoor transmission element, and the auxiliary transmission element are connected to each other.
許請求の範囲第１項記載の空気調和機の信号伝送装置。(2) The signal transmission device for an air conditioner according to claim 1, wherein the transmitting element and the receiving element are constructed of photocouplers.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP60231805A JPS6291744A (en) | 1985-10-17 | 1985-10-17 | Signal transmitting device for air-conditioning machine |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP60231805A JPS6291744A (en) | 1985-10-17 | 1985-10-17 | Signal transmitting device for air-conditioning machine |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| JPS6291744A true JPS6291744A (en) | 1987-04-27 |
Family
ID=16929294
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| JP60231805A Pending JPS6291744A (en) | 1985-10-17 | 1985-10-17 | Signal transmitting device for air-conditioning machine |
Country Status (1)
| Country | Link |
|---|---|
| JP (1) | JPS6291744A (en) |
Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPS63306346A (en) * | 1987-06-04 | 1988-12-14 | Daikin Ind Ltd | Operation control device for multizone air conditioner |
| JPH03152337A (en) * | 1989-11-07 | 1991-06-28 | Daikin Ind Ltd | Operation control device of air conditioner |
| US5642857A (en) * | 1995-03-30 | 1997-07-01 | Mitsubishi Denki Kabushiki Kaisha | Control apparatus for multi-air-conditioner |
-
1985
- 1985-10-17 JP JP60231805A patent/JPS6291744A/en active Pending
Cited By (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPS63306346A (en) * | 1987-06-04 | 1988-12-14 | Daikin Ind Ltd | Operation control device for multizone air conditioner |
| JPH03152337A (en) * | 1989-11-07 | 1991-06-28 | Daikin Ind Ltd | Operation control device of air conditioner |
| JPH0796948B2 (en) * | 1989-11-07 | 1995-10-18 | ダイキン工業株式会社 | Operation control device for air conditioner |
| US5642857A (en) * | 1995-03-30 | 1997-07-01 | Mitsubishi Denki Kabushiki Kaisha | Control apparatus for multi-air-conditioner |
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