JP2003322388A - Air conditioner - Google Patents

Air conditioner

Info

Publication number
JP2003322388A
JP2003322388A JP2002130377A JP2002130377A JP2003322388A JP 2003322388 A JP2003322388 A JP 2003322388A JP 2002130377 A JP2002130377 A JP 2002130377A JP 2002130377 A JP2002130377 A JP 2002130377A JP 2003322388 A JP2003322388 A JP 2003322388A
Authority
JP
Japan
Prior art keywords
temperature
flow rate
rate adjusting
indoor
compressor
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
Application number
JP2002130377A
Other languages
Japanese (ja)
Inventor
Yoshitoshi Koyama
美登志 小山
Eiji Kuwabara
永治 桑原
Yasuji Ogoshi
靖二 大越
Takeshi Mochizuki
武 望月
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.)
Toshiba Carrier Corp
Original Assignee
Toshiba Carrier Corp
Priority date (The priority date 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 date listed.)
Filing date
Publication date
Application filed by Toshiba Carrier Corp filed Critical Toshiba Carrier Corp
Priority to JP2002130377A priority Critical patent/JP2003322388A/en
Publication of JP2003322388A publication Critical patent/JP2003322388A/en
Pending legal-status Critical Current

Links

Abstract

<P>PROBLEM TO BE SOLVED: To provide an air conditioner, excellent in the expansibility for adding or removing a floor panel afterward. <P>SOLUTION: A branch unit D is connected between the connections of an outdoor unit A and an indoor unit B, and a floor panel is connected to the branch unit D. <P>COPYRIGHT: (C)2004,JPO

Description

【発明の詳細な説明】Detailed Description of the Invention

【0001】[0001]

【発明の属する技術分野】この発明は、室外機および室
内機のほかに床冷暖房用の床パネルを備えた空気調和機
に関する。
BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to an air conditioner provided with a floor panel for floor cooling and heating in addition to an outdoor unit and an indoor unit.

【0002】[0002]

【従来の技術】室外機および室内機のほかに床パネルを
備え、室内機からの空調用空気の吹出しによる通常の冷
暖房のほかに、床パネルの熱輻射による床冷暖房を行う
空気調和機がある。この空気調和機の場合、室外機に水
熱交換器、水タンク、ポンプが設けられており、水タン
ク内の水がポンプにより水熱交換器および床パネルを通
して循環する。この循環により、冷媒の熱が床パネルに
与えられて、床上空間に輻射される。
2. Description of the Related Art In addition to an outdoor unit and an indoor unit, there is an air conditioner which is provided with a floor panel, and performs floor cooling and heating by heat radiation of the floor panel, in addition to normal cooling and heating by blowing air for air conditioning from the indoor unit. . In the case of this air conditioner, the outdoor unit is provided with a water heat exchanger, a water tank, and a pump, and water in the water tank is circulated by the pump through the water heat exchanger and the floor panel. By this circulation, the heat of the refrigerant is given to the floor panel and radiated to the space above the floor.

【0003】[0003]

【発明が解決しようとする課題】上記のように、床冷暖
房を行う空気調和機の場合、水熱交換器、水タンク、ポ
ンプなどが組込まれた室外機が必要になる。このため、
既設の空気調和機に床パネルを追加しようとしても、そ
れは不可能である。
As described above, in the case of an air conditioner for floor cooling and heating, an outdoor unit incorporating a water heat exchanger, a water tank, a pump, etc. is required. For this reason,
Trying to add floor panels to an existing air conditioner is not possible.

【0004】この発明は上記の事情を考慮したもので、
その目的とするところは、床パネルを後から追加したり
あるいは取り除くことが可能な拡張性にすぐれた空気調
和機を提供することにある。
The present invention takes the above circumstances into consideration,
It is an object of the invention to provide an air conditioner excellent in expandability in which floor panels can be added or removed later.

【0005】[0005]

【課題を解決するための手段】請求項1に係る発明の空
気調和機は、室外機および室内機を備えたものであっ
て、室外機および室内機の接続間に接続される分岐ユニ
ットと、この分岐ユニットに接続される床パネルと、を
備えている。
An air conditioner according to a first aspect of the present invention comprises an outdoor unit and an indoor unit, and a branch unit connected between the connection of the outdoor unit and the indoor unit, A floor panel connected to the branch unit.

【0006】[0006]

【発明の実施の形態】以下、この発明の第1の実施形態
について図面を参照して説明する。図1に示すように、
室外機Aと室内機Bとが分岐ユニットDを介して相互に
接続され、その分岐ユニットDに床パネルCが接続され
ている。
BEST MODE FOR CARRYING OUT THE INVENTION A first embodiment of the present invention will be described below with reference to the drawings. As shown in Figure 1,
The outdoor unit A and the indoor unit B are connected to each other via a branch unit D, and the floor panel C is connected to the branch unit D.

【0007】室外機Aは、圧縮機1、四方弁2、室外熱
交換器3、流量調整弁4、室外ファン5、室外温度セン
サ6、冷媒温度センサ7、吐出冷媒温度センサ8、吸込
冷媒温度センサ9、室外制御器30、インバータ31を
有している。分岐ユニットDは、流量調整弁(第1流量
調整弁)11、流量調整弁(第2流量調整弁)12、水
熱交換器13、水タンク14、ポンプ15、水抜き栓1
7、冷媒温度センサ18、分岐ユニット制御器40を有
している。室内機Bは、室内熱交換器21、室内ファン
22、室内温度センサ23、冷媒温度センサ24、熱交
換器温度センサ25、室内制御器50を有している。室
内制御器50には、運転条件設定用のリモートコントロ
ール式の操作器(以下、リモコンと略称する)51が接
続されている。なお、リモコン51には、後述する各連
動運転手段のいずれかの制御を選択的に実行するための
操作手段としてモード選択キーが設けられるとともに、
その各連動運転手段の制御により検知温度Ta,Tfが
設定温度Tas,Tfsに達した後で室内機Bの運転を
停止して床パネルCの単独運転に移行するか否かを設定
するための操作手段として単独運転移行キーが設けられ
ている。
The outdoor unit A includes a compressor 1, a four-way valve 2, an outdoor heat exchanger 3, a flow rate adjusting valve 4, an outdoor fan 5, an outdoor temperature sensor 6, a refrigerant temperature sensor 7, a discharge refrigerant temperature sensor 8, and a suction refrigerant temperature. It has a sensor 9, an outdoor controller 30, and an inverter 31. The branch unit D includes a flow rate adjusting valve (first flow rate adjusting valve) 11, a flow rate adjusting valve (second flow rate adjusting valve) 12, a water heat exchanger 13, a water tank 14, a pump 15, and a drain plug 1.
7, a refrigerant temperature sensor 18, and a branch unit controller 40. The indoor unit B includes an indoor heat exchanger 21, an indoor fan 22, an indoor temperature sensor 23, a refrigerant temperature sensor 24, a heat exchanger temperature sensor 25, and an indoor controller 50. To the indoor controller 50, a remote control type operation device (hereinafter, abbreviated as a remote controller) 51 for operating condition setting is connected. In addition, the remote controller 51 is provided with a mode selection key as an operation unit for selectively executing any control of each interlocking operation unit described later, and
After the detected temperatures Ta and Tf reach the set temperatures Tas and Tfs under the control of the respective interlocking operation means, the operation of the indoor unit B is stopped and it is set whether or not the floor panel C is shifted to the independent operation. An islanding operation shift key is provided as an operating means.

【0008】床パネルCは、放熱用配管28および床温
度センサ29を有している。床温度センサ29は、当該
床パネルCの温度Tfを検知する。
The floor panel C has a heat radiation pipe 28 and a floor temperature sensor 29. The floor temperature sensor 29 detects the temperature Tf of the floor panel C.

【0009】これら室外機A、分岐ユニットD、および
室内機Bにおいて以下のヒートポンプ式冷凍サイクルが
構成されるとともに、分岐ユニットDから床パネルCに
かけて以下の水循環サイクルが構成されている。
The outdoor unit A, the branch unit D, and the indoor unit B constitute the following heat pump refrigeration cycle, and the branch unit D to the floor panel C constitute the following water circulation cycle.

【0010】圧縮機1の冷媒吐出口に四方弁2を介して
室外熱交換器3が配管接続され、その室外熱交換器3に
パックドバルブP1,P2を介して流量調整弁(第1,
第2流量調整弁)11,12が配管接続されている。こ
のうち、流量調整弁11にパックドバルブP3を介して
室内熱交換器21が配管接続され、その室内熱交換器2
1にパックドバルブP4,P5,P6および上記四方弁
2を介して圧縮機1の冷媒吸込口が配管接続されてい
る。流量調整弁12には水熱交換器13が配管接続さ
れ、その水熱交換器13にパックドバルブP5,P6お
よび四方弁2を介して圧縮機1の冷媒吸込口が配管接続
されている。これら配管接続により、冷暖房が可能なヒ
ートポンプ式冷凍サイクルが構成されている。
An outdoor heat exchanger 3 is connected to the refrigerant discharge port of the compressor 1 via a four-way valve 2, and the outdoor heat exchanger 3 is connected to the flow rate control valve (first, first) via packed valves P1, P2.
The second flow rate adjusting valves) 11 and 12 are connected by piping. Of these, the indoor heat exchanger 21 is connected to the flow rate adjusting valve 11 via the packed valve P3 by piping, and the indoor heat exchanger 2
1, a refrigerant suction port of the compressor 1 is pipe-connected through the packed valves P4, P5, P6 and the four-way valve 2. A water heat exchanger 13 is pipe-connected to the flow rate adjusting valve 12, and the refrigerant suction port of the compressor 1 is pipe-connected to the water heat exchanger 13 via the packed valves P5 and P6 and the four-way valve 2. A heat pump type refrigeration cycle capable of cooling and heating is configured by these pipe connections.

【0011】室外機Aの四方弁2がオンすると、圧縮機
1から吐出される冷媒が四方弁2、室外熱交換器3、流
量調整弁4、流量調整弁11、室内熱交換器21、四方
弁2を通って圧縮機1に戻る室内冷房用の冷媒流路が形
成されるとともに、圧縮機1から吐出される冷媒が四方
弁2、室外熱交換器3、流量調整弁4、流量調整弁1
2、水熱交換器13、四方弁2を通って圧縮機1に戻る
床冷房用の冷媒流路が形成される。
When the four-way valve 2 of the outdoor unit A is turned on, the refrigerant discharged from the compressor 1 causes the four-way valve 2, the outdoor heat exchanger 3, the flow rate adjusting valve 4, the flow rate adjusting valve 11, the indoor heat exchanger 21, the four-way valve. A refrigerant channel for indoor cooling that returns to the compressor 1 through the valve 2 is formed, and the refrigerant discharged from the compressor 1 is a four-way valve 2, an outdoor heat exchanger 3, a flow rate adjusting valve 4, a flow rate adjusting valve. 1
2, a refrigerant flow path for floor cooling that returns to the compressor 1 through the water heat exchanger 13 and the four-way valve 2 is formed.

【0012】四方弁2がオフすると、圧縮機1から吐出
される冷媒が四方弁2、室内熱交換器21、流量調整弁
11、流量調整弁4、室外熱交換器3、四方弁2を通っ
て圧縮機1に戻る室内暖房用の冷媒流路が形成されると
ともに、圧縮機1から吐出される冷媒が四方弁2、水熱
交換器13、流量調整弁12、流量調整弁4、室内熱交
換器3、四方弁2を通って圧縮機1に戻る床暖房用の冷
媒流路が形成される。
When the four-way valve 2 is turned off, the refrigerant discharged from the compressor 1 passes through the four-way valve 2, the indoor heat exchanger 21, the flow rate adjusting valve 11, the flow rate adjusting valve 4, the outdoor heat exchanger 3, and the four-way valve 2. A refrigerant flow path for indoor heating that returns to the compressor 1 is formed, and the refrigerant discharged from the compressor 1 is a four-way valve 2, a water heat exchanger 13, a flow rate adjusting valve 12, a flow rate adjusting valve 4, an indoor heat source. A refrigerant flow path for floor heating that returns to the compressor 1 through the exchanger 3 and the four-way valve 2 is formed.

【0013】これら冷媒流路を構成している配管は、室
外機A、室内機B、分岐ユニットDの個々に分かれて相
互の接続・切離が自在となっている。その接続・切離用
としてパックドバルブP1,P2,P3,P4,P5,
P6が設けられている。
The pipes forming these refrigerant channels are divided into an outdoor unit A, an indoor unit B, and a branch unit D so that they can be connected / disconnected from each other. Packed valves P1, P2, P3, P4, P5 for connection and disconnection
P6 is provided.

【0014】分岐ユニットDの水熱交換器13には水タ
ンク14が配管接続され、その水タンク14にポンプ1
5および水管16を介して床パネルCの放熱用配管28
が接続されている。そして、放熱用配管28に水管19
を介して水熱交換器13が配管接続されている。これら
配管接続により、水循環サイクルが構成されている。
A water tank 14 is pipe-connected to the water heat exchanger 13 of the branch unit D, and the pump 1 is connected to the water tank 14.
Pipe 28 for heat radiation of the floor panel C via the water pipe 5 and the water pipe 16.
Are connected. The water pipe 19 is connected to the heat radiation pipe 28.
The water heat exchanger 13 is connected via a pipe. A water circulation cycle is constituted by these pipe connections.

【0015】ポンプ15が運転すると、水タンク14内
の水が水管16を通って床パネルCの放熱用配管28に
流れ、その放熱用配管28を経た水が水熱交換器13を
通って水タンク14に戻る。この水の循環により、分岐
ユニットDにおける冷媒の熱が床パネルCに供給され
る。
When the pump 15 is operated, the water in the water tank 14 flows through the water pipe 16 to the heat radiation pipe 28 of the floor panel C, and the water passing through the heat radiation pipe 28 passes through the water heat exchanger 13 to become water. Return to tank 14. The circulation of the water supplies the heat of the refrigerant in the branch unit D to the floor panel C.

【0016】室外機Aにおける室外温度センサ6は、室
外ファン5によって吸い込まれる外気の温度を検知す
る。冷媒温度センサ7は、暖房時に室外熱交換器3に流
入する冷媒の温度をTEを検知する。吐出冷媒温度セン
サ8は、圧縮機1から吐出される冷媒の温度を検知す
る。吸込冷媒温度センサ9は、圧縮機1に吸込まれる冷
媒の温度TSを検知する。インバータ31は、室外制御
器30からの指令に応じた周波数(およびレベル)の電
圧を圧縮機1に対する駆動電力として出力する。室外制
御器30は、温度センサ6,7,8,9の検知温度に応
じて、かつ分岐ユニット制御器40との間でデータを送
受信しながら、圧縮機1の運転周波数(インバータ21
の出力周波数)F、四方弁2の動作、室外ファン5の運
転などを制御する。
The outdoor temperature sensor 6 in the outdoor unit A detects the temperature of the outside air sucked by the outdoor fan 5. The refrigerant temperature sensor 7 detects the temperature TE of the refrigerant flowing into the outdoor heat exchanger 3 during heating. The discharged refrigerant temperature sensor 8 detects the temperature of the refrigerant discharged from the compressor 1. The suction refrigerant temperature sensor 9 detects the temperature TS of the refrigerant sucked into the compressor 1. The inverter 31 outputs a voltage having a frequency (and a level) according to a command from the outdoor controller 30 as drive power for the compressor 1. The outdoor controller 30 transmits and receives data to and from the branch unit controller 40 according to the temperatures detected by the temperature sensors 6, 7, 8, and 9, and the operating frequency of the compressor 1 (the inverter 21
Output frequency) F, the operation of the four-way valve 2, the operation of the outdoor fan 5, and the like.

【0017】室内機Bにおける室内温度センサ23は、
室内ファン22により吸込まれる室内空気の温度Taを
検知する。冷媒温度センサ24は、冷房時に室内熱交換
器21に流入する冷媒の温度TCJを検知する。熱交換
器温度センサ25は、室内熱交換器21の温度を検知す
る。室内制御器50は、リモコン51で設定される運転
条件および温度センサ23,24,25の検知温度に応
じて、かつ分岐ユニット制御器40との間でデータを送
受信しながら、室内ファン22の運転などを制御する。
The indoor temperature sensor 23 in the indoor unit B is
The temperature Ta of the indoor air sucked by the indoor fan 22 is detected. The refrigerant temperature sensor 24 detects the temperature TCJ of the refrigerant flowing into the indoor heat exchanger 21 during cooling. The heat exchanger temperature sensor 25 detects the temperature of the indoor heat exchanger 21. The indoor controller 50 operates the indoor fan 22 according to the operating conditions set by the remote controller 51 and the temperatures detected by the temperature sensors 23, 24, 25, and while transmitting and receiving data to and from the branch unit controller 40. And control.

【0018】分岐ユニットDにおける冷媒温度センサ1
8は、床冷房時に水熱交換器13に流入する冷媒の温度
TCWを検知する。分岐ユニット制御器40は、冷媒温
度センサ18の検知温度TCWおよび床パネルCにおけ
る床温度センサ29の検知温度Tfに応じて、かつ室外
制御器30および室内制御器50との間でデータを送受
信しながら、流量調整弁11,12の開度、ポンプ15
の運転などを制御する。
Refrigerant temperature sensor 1 in branch unit D
Reference numeral 8 detects the temperature TCW of the refrigerant flowing into the water heat exchanger 13 during floor cooling. The branch unit controller 40 transmits / receives data to / from the outdoor controller 30 and the indoor controller 50 according to the temperature TCW detected by the refrigerant temperature sensor 18 and the temperature Tf detected by the floor temperature sensor 29 on the floor panel C. While opening the flow rate adjusting valves 11 and 12, the pump 15
Control the operation of the car.

【0019】室外制御器30、分岐ユニット制御器4
0、および室内制御器50は、主要な機能として次の
(1)〜(5)の手段を備えている。 (1)ポンプ15を停止した状態で圧縮機1を最大運転
周波数Fmaxで運転しながら流量調整弁11を最大開
度(全開)に設定して流量調整弁12を微小開度または
全閉状態に設定し、その後、室内温度センサ23の検知
温度Taがリモコン51で予め定められる設定温度Ta
sに達したところでポンプ15を運転して流量調整弁1
2を最大開度に設定するとともに検知温度Taが設定温
度Tasを保つように流量調整弁11の開度を制御し、
その後、床温度センサ29の検知温度Tfがリモコン5
1で予め定められる設定温度Tfsに達したところで検
知温度Tfおよび検知温度Taが設定温度Tfs,Ta
sを保つように圧縮機1の運転周波数Fおよび流量調整
弁11,12の開度を制御する室温優先モードの連動運
転手段。
Outdoor controller 30, branch unit controller 4
0 and the indoor controller 50 have the following means (1) to (5) as main functions. (1) The flow rate adjusting valve 11 is set to the maximum opening (fully open) while the compressor 1 is operated at the maximum operating frequency Fmax with the pump 15 stopped, and the flow rate adjusting valve 12 is set to the minute opening or fully closed state. After setting, the temperature Ta detected by the indoor temperature sensor 23 is set by the remote controller 51 in advance.
When reaching s, the pump 15 is operated and the flow rate adjusting valve 1
2 is set to the maximum opening, and the opening of the flow rate adjusting valve 11 is controlled so that the detected temperature Ta maintains the set temperature Tas,
After that, the temperature Tf detected by the floor temperature sensor 29 changes to the remote control 5
The detected temperature Tf and the detected temperature Ta are the set temperatures Tfs and Ta when the set temperature Tfs, which is predetermined in 1, is reached.
A room temperature priority mode interlocking operation means for controlling the operating frequency F of the compressor 1 and the openings of the flow rate adjusting valves 11 and 12 so as to maintain s.

【0020】(2)ポンプ15を運転するとともに圧縮
機1を最大運転周波数Fmaxで運転しながら流量調整
弁11を微小開度または全閉状態に設定して流量調整弁
12を最大開度に設定し、その後、床温度センサ29の
検知温度Tfが設定温度Tfsに達したところで流量調
整弁11を最大開度に設定するとともに検知温度Tfが
設定温度Tfsを保つように流量調整弁12の開度を制
御し、その後、室内温度センサ23の検知温度Taが設
定温度Tasに達したところで検知温度Taおよび検知
温度Tfが設定温度Tas,Tfsを保つように圧縮機
1の運転周波数Fおよび流量調整弁11,12の開度を
制御する床温優先モードの連動運転手段。
(2) While the pump 15 is operated and the compressor 1 is operated at the maximum operation frequency Fmax, the flow rate adjusting valve 11 is set to the minute opening or the fully closed state and the flow rate adjusting valve 12 is set to the maximum opening. Then, after that, when the detected temperature Tf of the floor temperature sensor 29 reaches the set temperature Tfs, the flow rate adjustment valve 11 is set to the maximum opening degree, and the opening degree of the flow rate adjustment valve 12 is set so that the detected temperature Tf maintains the set temperature Tfs. Is controlled, and thereafter, when the detected temperature Ta of the indoor temperature sensor 23 reaches the set temperature Tas, the operating frequency F and the flow rate adjusting valve of the compressor 1 are maintained so that the detected temperature Ta and the detected temperature Tf maintain the set temperatures Tas and Tfs. An interlocking operation means in a bed temperature priority mode for controlling the opening degrees of 11 and 12.

【0021】(3)ポンプ15を運転するとともに圧縮
機1を最大運転周波数Fmaxで運転しながら流量調整
弁11,12を中間開度に設定し、その後、室内温度セ
ンサ23の検知温度Taが設定温度Tasに達したとこ
ろで検知温度Taが設定温度Tasを保つように流量調
整弁11,12の開度を制御し、かつ床温度センサ29
の検知温度Tfが設定温度Tfsに達したところで検知
温度Tfおよび検知温度Taが設定温度Tfs,Tas
を保つように圧縮機1の運転周波数Fおよび流量調整弁
11,12の開度を制御する自動モードの連動運転手
段。
(3) While operating the pump 15 and operating the compressor 1 at the maximum operating frequency Fmax, the flow rate adjusting valves 11 and 12 are set to intermediate openings, and then the temperature Ta detected by the indoor temperature sensor 23 is set. When the temperature Tas is reached, the openings of the flow rate adjusting valves 11 and 12 are controlled so that the detected temperature Ta maintains the set temperature Tas, and the floor temperature sensor 29 is used.
When the detected temperature Tf reaches the set temperature Tfs, the detected temperature Tf and the detected temperature Ta are set to the set temperatures Tfs, Tas.
The interlocking operation means in the automatic mode for controlling the operating frequency F of the compressor 1 and the openings of the flow rate adjusting valves 11 and 12 so as to maintain the above.

【0022】(4)リモコン51におけるモード選択キ
ーの操作に応じて上記各連動運転手段のいずれかの制御
を選択的に実行せしめる制御手段。
(4) Control means for selectively executing any one of the above-mentioned interlocking operation means according to the operation of the mode selection key on the remote controller 51.

【0023】(5)リモコン51における単独運転移行
キーがオンのとき、上記各連動運転手段の制御により検
知温度Ta,Tfが設定温度Tas,Tfsに達した後
で室内機Bの運転を停止して床パネルCの単独運転に移
行する制御手段。
(5) When the islanding operation shift key of the remote controller 51 is on, the operation of the indoor unit B is stopped after the detected temperatures Ta and Tf reach the set temperatures Tas and Tfs by the control of the interlocking operation means. Control means for shifting the floor panel C to the independent operation.

【0024】つぎに、上記の構成の作用を説明する。図
2に示すように、運転モードとして『エアコン暖房』
『床暖房』『連動暖房(エアコン暖房+床暖房)』『エ
アコン冷房』『床冷房』『連動冷房(エアコン冷房+床
冷房)』がある。このうち、連動暖房(エアコン暖房+
床暖房)運転および連動冷房(エアコン冷房+床冷房)
運転には、それぞれ室温優先モード、床温優先モード、
自動モードがある。
Next, the operation of the above configuration will be described. As shown in Fig. 2, the operating mode is "air conditioner heating".
There are "floor heating", "interlocked heating (air conditioner heating + floor heating)", "air conditioner cooling", "floor cooling", and "interlocked cooling (air conditioner cooling + floor cooling)". Of these, interlocked heating (air conditioning heating +
Floor heating) operation and linked cooling (air conditioner cooling + floor cooling)
For operation, room temperature priority mode, floor temperature priority mode,
There is an automatic mode.

【0025】(a)エアコン暖房運転 四方弁2がオフ、室内ファン22がオン、流量調整弁1
1が最大開度、流量調整弁12が微小開度に設定され
る。これにより、圧縮機1から吐出される冷媒が四方弁
2を介して室内熱交換器21に流れ、その室内熱交換器
21を経た冷媒が流量調整弁11、流量調整弁4、室外
熱交換器3、四方弁2を介して圧縮機1に戻る。室内熱
交換器21では冷媒が室内空気に熱を奪われて凝縮し、
その凝縮により室内空気が暖められる。
(A) Air conditioner heating operation Four-way valve 2 is off, indoor fan 22 is on, flow rate adjusting valve 1
1 is set to the maximum opening, and the flow rate adjusting valve 12 is set to the minute opening. As a result, the refrigerant discharged from the compressor 1 flows into the indoor heat exchanger 21 via the four-way valve 2, and the refrigerant passing through the indoor heat exchanger 21 includes the flow rate adjusting valve 11, the flow rate adjusting valve 4, and the outdoor heat exchanger. 3. Return to the compressor 1 via the four-way valve 2. In the indoor heat exchanger 21, the refrigerant takes heat from the indoor air to condense,
The condensation warms the indoor air.

【0026】室内温度Taが室内温度センサ23で検知
されており、検知温度Taが設定温度Tasとなるよう
に圧縮機1の運転周波数Fが制御される。
The room temperature Ta is detected by the room temperature sensor 23, and the operating frequency F of the compressor 1 is controlled so that the detected temperature Ta becomes the set temperature Tas.

【0027】蒸発器として機能する室外熱交換器3に流
入する冷媒の温度TEが冷媒温度センサ7で検知される
とともに、その室外熱交換器3を経た冷媒の温度TSが
吸込冷媒温度センサ9で検知される。そして、検知温度
TS,TEの差(=TS−TE)が冷媒の過熱度として
検出され、その過熱度が一定となるように流量調整弁4
の開度が制御される。
The temperature TE of the refrigerant flowing into the outdoor heat exchanger 3 functioning as an evaporator is detected by the refrigerant temperature sensor 7, and the temperature TS of the refrigerant passing through the outdoor heat exchanger 3 is detected by the suction refrigerant temperature sensor 9. Detected. Then, the difference between the detected temperatures TS and TE (= TS-TE) is detected as the degree of superheat of the refrigerant, and the flow rate adjusting valve 4 is set so that the degree of superheat becomes constant.
The opening degree of is controlled.

【0028】なお、四方弁2を経た冷媒がわずかに水熱
交換器13側に分流するが、その分流した冷媒を微小開
度の流量調整弁12を通して室外熱交換器3側に逃がす
ことができる。
Although the refrigerant passing through the four-way valve 2 is slightly branched to the water heat exchanger 13 side, the divided refrigerant can be released to the outdoor heat exchanger 3 side through the flow control valve 12 having a small opening. .

【0029】(b)床暖房運転 “床暖房”運転では、四方弁2がオフ、流量調整弁11
が微小開度、流量調整弁12が最大開度に設定される。
これにより、圧縮機1から吐出される冷媒が四方弁2を
介して水熱交換器13に流れ、その水熱交換器13を経
た冷媒が流量調整弁12、流量調整弁4、室外熱交換器
3、四方弁2を介して圧縮機1に戻る。同時に、ポンプ
15が運転され、水タンク14内の水が水熱交換器13
および床パネルCの放熱用配管28を通して循環する。
水熱交換器13では冷媒が水に熱を奪われて凝縮し、そ
の凝縮により水が暖められる。暖められた水は床パネル
Cの放熱用配管28に流れて床上空間を暖める。
(B) Floor heating operation In the "floor heating" operation, the four-way valve 2 is turned off and the flow control valve 11
Is set to a minute opening, and the flow rate adjusting valve 12 is set to a maximum opening.
Thereby, the refrigerant discharged from the compressor 1 flows to the water heat exchanger 13 via the four-way valve 2, and the refrigerant passing through the water heat exchanger 13 is the flow rate adjusting valve 12, the flow rate adjusting valve 4, the outdoor heat exchanger. 3. Return to the compressor 1 via the four-way valve 2. At the same time, the pump 15 is operated and the water in the water tank 14 is replaced by the water heat exchanger 13.
And circulate through the heat dissipation pipe 28 of the floor panel C.
In the water heat exchanger 13, the refrigerant takes heat away from the refrigerant to condense it, and the condensation warms the water. The warmed water flows into the heat radiation pipe 28 of the floor panel C to warm the space above the floor.

【0030】床パネルCの温度Tfが室内温度センサ2
3で検知されており、検知温度Tfが設定温度Tfsと
なるように圧縮機1の運転周波数Fが制御される。
The temperature Tf of the floor panel C is the indoor temperature sensor 2
3 is detected, and the operating frequency F of the compressor 1 is controlled so that the detected temperature Tf becomes the set temperature Tfs.

【0031】蒸発器として機能する室外熱交換器3に流
入する冷媒の温度TEが冷媒温度センサ7で検知される
とともに、その室外熱交換器3を経た冷媒の温度TSが
吸込冷媒温度センサ9で検知される。そして、検知温度
TS,TEの差(=TS−TE)が冷媒の過熱度として
検出され、その過熱度が一定となるように流量調整弁4
の開度が制御される。
The temperature TE of the refrigerant flowing into the outdoor heat exchanger 3 functioning as an evaporator is detected by the refrigerant temperature sensor 7, and the temperature TS of the refrigerant passing through the outdoor heat exchanger 3 is detected by the suction refrigerant temperature sensor 9. Detected. Then, the difference between the detected temperatures TS and TE (= TS-TE) is detected as the degree of superheat of the refrigerant, and the flow rate adjusting valve 4 is set so that the degree of superheat becomes constant.
The opening degree of is controlled.

【0032】(c)エアコン冷房運転 四方弁2がオン、室内ファン22がオン、流量調整弁1
1が最大開度、流量調整弁12が全閉に設定される。こ
れにより、圧縮機1から吐出される冷媒が四方弁2を介
して室外熱交換器3に流れ、その室外熱交換器3を経た
冷媒が流量調整弁4、流量調整弁11、室内熱交換器2
1、四方弁2を介して圧縮機1に戻る。室内熱交換器2
1では冷媒が室内空気から熱を奪って蒸発し、その蒸発
により室内空気が冷やされる。
(C) Air-conditioner cooling operation Four-way valve 2 is on, indoor fan 22 is on, flow rate adjusting valve 1
1 is set to the maximum opening, and the flow rate adjusting valve 12 is set to be fully closed. As a result, the refrigerant discharged from the compressor 1 flows to the outdoor heat exchanger 3 via the four-way valve 2, and the refrigerant passing through the outdoor heat exchanger 3 is the flow rate adjusting valve 4, the flow rate adjusting valve 11, the indoor heat exchanger. Two
1. Return to the compressor 1 via the four-way valve 2. Indoor heat exchanger 2
In No. 1, the refrigerant takes heat from the indoor air to evaporate, and the indoor air is cooled by the evaporation.

【0033】室内温度Taが室内温度センサ23で検知
されており、検知温度Taが設定温度Tasとなるよう
に圧縮機1の運転周波数Fが制御される。
The room temperature Ta is detected by the room temperature sensor 23, and the operating frequency F of the compressor 1 is controlled so that the detected temperature Ta becomes the set temperature Tas.

【0034】蒸発器として機能する室内熱交換器21に
流入する冷媒の温度TCJが冷媒温度センサ24で検知
されるとともに、その室内熱交換器21を経た冷媒の温
度TSが吸込冷媒温度センサ9で検知される。そして、
検知温度TS,TCJの差(=TS−TCJ)が冷媒の
過熱度として検出され、その過熱度が一定となるように
流量調整弁11の開度が制御される。
The temperature TCJ of the refrigerant flowing into the indoor heat exchanger 21 functioning as an evaporator is detected by the refrigerant temperature sensor 24, and the temperature TS of the refrigerant passing through the indoor heat exchanger 21 is detected by the suction refrigerant temperature sensor 9. Detected. And
The difference between the detected temperatures TS and TCJ (= TS-TCJ) is detected as the degree of superheat of the refrigerant, and the opening of the flow rate adjustment valve 11 is controlled so that the degree of superheat is constant.

【0035】(d)床冷房運転 “床冷房”運転では、四方弁2がオン、流量調整弁11
が最大開度、流量調整弁12が全閉に設定される。これ
により、圧縮機1から吐出される冷媒が四方弁2を介し
て室外熱交換器3に流れ、その室外熱交換器3を経た冷
媒が流量調整弁4、流量調整弁12、水熱交換器13、
四方弁2を介して圧縮機1に戻る。同時に、ポンプ15
が運転され、水タンク14内の水が水熱交換器13およ
び床パネルCの放熱用配管28を通して循環する。水熱
交換器13では冷媒が水から熱を奪って蒸発し、その蒸
発により水が冷やされる。冷やされた水は床パネルCの
放熱用配管28に流れて床上空間を冷却する。
(D) Floor cooling operation In the "floor cooling" operation, the four-way valve 2 is turned on and the flow control valve 11 is turned on.
Is set to the maximum opening and the flow rate adjusting valve 12 is set to be fully closed. As a result, the refrigerant discharged from the compressor 1 flows to the outdoor heat exchanger 3 via the four-way valve 2, and the refrigerant passing through the outdoor heat exchanger 3 is the flow rate adjusting valve 4, the flow rate adjusting valve 12, the water heat exchanger. 13,
Return to the compressor 1 via the four-way valve 2. At the same time, pump 15
Is operated, and the water in the water tank 14 circulates through the water heat exchanger 13 and the heat radiation pipe 28 of the floor panel C. In the water heat exchanger 13, the refrigerant takes heat from the water to evaporate, and the evaporation cools the water. The cooled water flows into the heat radiation pipe 28 of the floor panel C to cool the space above the floor.

【0036】床パネルCの温度Tfが室内温度センサ2
3で検知されており、検知温度Tfが設定温度Tfsと
なるように圧縮機1の運転周波数Fが制御される。
The temperature Tf of the floor panel C is the indoor temperature sensor 2
3 is detected, and the operating frequency F of the compressor 1 is controlled so that the detected temperature Tf becomes the set temperature Tfs.

【0037】蒸発器として機能する水熱交換器13に流
入する冷媒の温度TCWが冷媒温度センサ18で検知さ
れるとともに、その水熱交換器13を経た冷媒の温度T
Sが吸込冷媒温度センサ9で検知される。そして、検知
温度TS,TCWの差(=TS−TCW)が冷媒の過熱
度として検出され、その過熱度が一定となるように流量
調整弁12の開度が制御される。
The temperature TCW of the refrigerant flowing into the water heat exchanger 13 functioning as an evaporator is detected by the refrigerant temperature sensor 18, and the temperature TW of the refrigerant passing through the water heat exchanger 13 is detected.
S is detected by the suction refrigerant temperature sensor 9. Then, the difference between the detected temperatures TS and TCW (= TS-TCW) is detected as the degree of superheat of the refrigerant, and the opening of the flow rate adjusting valve 12 is controlled so that the degree of superheat becomes constant.

【0038】(e)室温優先モードの連動暖房運転(図
3により説明する) 四方弁2がオフ、室内ファン22がオン、ポンプ15が
停止の状態で、圧縮機1が最大運転周波数Fmaxで運
転されながら、流量調整弁11が最大開度(全開)に設
定されて流量調整弁12が微小開度に設定される(エア
コン暖房開始)。
(E) Interlocked heating operation in room temperature priority mode (described with reference to FIG. 3) The four-way valve 2 is off, the indoor fan 22 is on, the pump 15 is stopped, and the compressor 1 is operated at the maximum operating frequency Fmax. Meanwhile, the flow rate adjusting valve 11 is set to the maximum opening (fully opened) and the flow rate adjusting valve 12 is set to the minute opening (air conditioner heating starts).

【0039】その後、室内温度センサ23の検知温度T
aが設定温度Tasに達したところで、ポンプ15が運
転されて流量調整弁12が最大開度に設定されるととも
に、検知温度Taが設定温度Tasを保つように流量調
整弁11の開度が制御される(床暖房開始)。
After that, the detected temperature T of the room temperature sensor 23
When a reaches the set temperature Tas, the pump 15 is operated to set the flow rate adjusting valve 12 to the maximum opening degree, and the opening degree of the flow rate adjusting valve 11 is controlled so that the detected temperature Ta maintains the set temperature Tas. Be done (floor heating starts).

【0040】その後、床温度センサ29の検知温度Tf
が設定温度Tfsに達したところで、検知温度Tfおよ
び検知温度Taが設定温度Tfs,Tasを保つよう
に、圧縮機1の運転周波数Fおよび流量調整弁11,1
2の開度が制御される(エアコン暖房+床暖房)。 (f)床温優先モードの連動暖房運転(図4により説明
する) 四方弁2がオフされ、ポンプ15が運転されるととも
に、圧縮機1が最大運転周波数Fmaxで運転されなが
ら、流量調整弁11が微小開度に設定されて流量調整弁
12が最大開度に設定される(床暖房開始)。
After that, the temperature Tf detected by the floor temperature sensor 29 is detected.
When the temperature reaches the set temperature Tfs, the operating frequency F of the compressor 1 and the flow rate adjusting valves 11, 1 are controlled so that the detected temperature Tf and the detected temperature Ta maintain the set temperatures Tfs, Tas.
The opening of 2 is controlled (air conditioner heating + floor heating). (F) Linked heating operation in floor temperature priority mode (explained with FIG. 4) The four-way valve 2 is turned off, the pump 15 is operated, and the compressor 1 is operated at the maximum operation frequency Fmax while the flow rate adjustment valve 11 is being operated. Is set to a minute opening, and the flow rate adjusting valve 12 is set to the maximum opening (floor heating starts).

【0041】その後、床温度センサ29の検知温度Tf
が設定温度Tfsに達したところで、室内ファン22が
オンされ、流量調整弁11が最大開度に設定されるとと
もに、検知温度Tfが設定温度Tfsを保つように流量
調整弁12の開度が制御される(エアコン暖房開始)。
Thereafter, the temperature Tf detected by the floor temperature sensor 29 is detected.
When the temperature reaches the set temperature Tfs, the indoor fan 22 is turned on, the flow rate adjusting valve 11 is set to the maximum opening degree, and the opening degree of the flow rate adjusting valve 12 is controlled so that the detected temperature Tf maintains the set temperature Tfs. Be done (air conditioning heating started).

【0042】その後、室内温度センサ23の検知温度T
aが設定温度Tasに達したところで、検知温度Taお
よび検知温度Tfが設定温度Tas,Tfsを保つよう
に、圧縮機1の運転周波数Fおよび流量調整弁11,1
2の開度が制御される(床暖房+エアコン暖房)。 (g)自動モードの“連動暖房”運転(図5により説明
する) 四方弁2がオフされ、室内ファン22がオンされ、ポン
プ15が運転されるとともに、圧縮機1が最大運転周波
数Fmaxで運転されながら、流量調整弁11,12が
中間開度に設定される。(エアコン暖房開始+床暖房開
始) その後、室内温度センサ23の検知温度Taが設定温度
Tasに達したところで、検知温度Taが設定温度Ta
sを保つように流量調整弁11,12の開度が制御され
る。また、床温度センサ29の検知温度Tfが設定温度
Tfsに達したところで、検知温度Tfおよび検知温度
Taが設定温度Tfs,Tasを保つように、圧縮機1
の運転周波数Fおよび流量調整弁11,12の開度が制
御される(エアコン暖房+床暖房)。
After that, the detected temperature T of the room temperature sensor 23
When a reaches the set temperature Tas, the operating frequency F of the compressor 1 and the flow rate adjusting valves 11, 1 are set so that the detected temperature Ta and the detected temperature Tf maintain the set temperatures Tas, Tfs.
The opening of 2 is controlled (floor heating + air conditioning heating). (G) “Interlocked heating” operation in automatic mode (explained with FIG. 5) The four-way valve 2 is turned off, the indoor fan 22 is turned on, the pump 15 is operated, and the compressor 1 is operated at the maximum operation frequency Fmax. Meanwhile, the flow rate adjusting valves 11 and 12 are set to the intermediate opening degree. (Air conditioning heating start + floor heating start) After that, when the detected temperature Ta of the indoor temperature sensor 23 reaches the set temperature Tas, the detected temperature Ta is set to the set temperature Ta.
The openings of the flow rate adjusting valves 11 and 12 are controlled so as to maintain s. Further, when the detected temperature Tf of the floor temperature sensor 29 reaches the set temperature Tfs, the compressor 1 is set so that the detected temperature Tf and the detected temperature Ta maintain the set temperatures Tfs, Tas.
The operating frequency F and the openings of the flow rate adjusting valves 11 and 12 are controlled (air conditioner heating + floor heating).

【0043】(h)リモコン51における単独運転移行
キーがオンされた状態での室温優先モードの連動暖房運
転(図6により説明する) 四方弁2がオフ、室内ファン22がオン、ポンプ15が
停止の状態で、圧縮機1が最大運転周波数Fmaxで運
転されながら、流量調整弁11が最大開度に設定されて
流量調整弁12が微小開度に設定される(エアコン暖房
開始)。
(H) Interlocked heating operation in the room temperature priority mode with the individual operation shift key of the remote controller 51 turned on (explained with FIG. 6) The four-way valve 2 is turned off, the indoor fan 22 is turned on, and the pump 15 is stopped. In this state, while the compressor 1 is operating at the maximum operating frequency Fmax, the flow rate adjusting valve 11 is set to the maximum opening degree and the flow rate adjusting valve 12 is set to the minute opening degree (air conditioner heating starts).

【0044】その後、室内温度センサ23の検知温度T
aが設定温度Tasに達したところで、ポンプ15が運
転されて流量調整弁12が最大開度に設定されるととも
に、検知温度Taが設定温度Tasを保つように流量調
整弁11の開度が制御される(床暖房開始)。
After that, the detected temperature T of the room temperature sensor 23
When a reaches the set temperature Tas, the pump 15 is operated to set the flow rate adjusting valve 12 to the maximum opening degree, and the opening degree of the flow rate adjusting valve 11 is controlled so that the detected temperature Ta maintains the set temperature Tas. Be done (floor heating starts).

【0045】その後、床温度センサ29の検知温度Tf
が設定温度Tfsに達したところで、室内ファン22が
オフされて流量調整弁11が最小開度に設定される。ま
た、検知温度Tfが設定温度Tfsを保つように、圧縮
機1の運転周波数Fおよび流量調整弁12の開度が制御
される(床暖房の単独運転)。 (h)室温優先モードの連動冷房運転(図7により説明
する) 四方弁2がオン、室内ファン22がオン、ポンプ15が
停止の状態で、圧縮機1が最大運転周波数Fmaxで運
転されながら、流量調整弁11が最大開度に設定されて
流量調整弁12が全閉に設定される(エアコン冷房開
始)。
After that, the temperature Tf detected by the floor temperature sensor 29 is detected.
When the temperature reaches the set temperature Tfs, the indoor fan 22 is turned off and the flow rate adjusting valve 11 is set to the minimum opening degree. Further, the operating frequency F of the compressor 1 and the opening degree of the flow rate adjusting valve 12 are controlled so that the detected temperature Tf maintains the set temperature Tfs (independent operation of floor heating). (H) Interlocked cooling operation in room temperature priority mode (explained with FIG. 7) While the four-way valve 2 is on, the indoor fan 22 is on, and the pump 15 is stopped, while the compressor 1 is operating at the maximum operating frequency Fmax, The flow rate adjusting valve 11 is set to the maximum opening degree, and the flow rate adjusting valve 12 is set to be fully closed (air conditioner cooling start).

【0046】その後、室内温度センサ23の検知温度T
aが設定温度Tasに達したところで、ポンプ15が運
転されて流量調整弁12が最大開度に設定される。ま
た、検知温度Taが設定温度Tasを保つように流量調
整弁11の開度が制御される(床冷房開始)。
After that, the detected temperature T of the room temperature sensor 23
When a reaches the set temperature Tas, the pump 15 is operated and the flow rate adjusting valve 12 is set to the maximum opening. Further, the opening degree of the flow rate adjusting valve 11 is controlled so that the detected temperature Ta maintains the set temperature Tas (start of floor cooling).

【0047】その後、床温度センサ29の検知温度Tf
が設定温度Tfsに達したところで、検知温度Tfおよ
び検知温度Taが設定温度Tfs,Tasを保つよう
に、圧縮機1の運転周波数Fおよび流量調整弁11,1
2の開度が制御される(エアコン冷房+床冷房)。 (i)床温優先モードの連動冷房運転(図8により説明
する) 四方弁2がオフされ、ポンプ15が運転されるととも
に、圧縮機1が最大運転周波数Fmaxで運転されなが
ら、流量調整弁11が全閉に設定されて流量調整弁12
が最大開度に設定される(床冷房開始)。
After that, the temperature Tf detected by the floor temperature sensor 29 is detected.
When the temperature reaches the set temperature Tfs, the operating frequency F of the compressor 1 and the flow rate adjusting valves 11, 1 are controlled so that the detected temperature Tf and the detected temperature Ta maintain the set temperatures Tfs, Tas.
The opening of 2 is controlled (air conditioner cooling + floor cooling). (I) Interlocked cooling operation in bed temperature priority mode (explained with FIG. 8) The four-way valve 2 is turned off, the pump 15 is operated, and the flow rate adjusting valve 11 is operated while the compressor 1 is operating at the maximum operating frequency Fmax. Is set to fully closed and the flow rate adjustment valve 12
Is set to the maximum opening (floor cooling starts).

【0048】その後、床温度センサ29の検知温度Tf
が設定温度Tfsに達したところで、室内ファン22が
オンされ、流量調整弁11が最大開度に設定される。ま
た、検知温度Tfが設定温度Tfsを保つように流量調
整弁12の開度が制御される(エアコン冷房開始)。
After that, the temperature Tf detected by the floor temperature sensor 29 is detected.
When the temperature reaches the set temperature Tfs, the indoor fan 22 is turned on and the flow rate adjusting valve 11 is set to the maximum opening. Further, the opening degree of the flow rate adjusting valve 12 is controlled so that the detected temperature Tf maintains the set temperature Tfs (air conditioner cooling start).

【0049】その後、室内温度センサ23の検知温度T
aが設定温度Tasに達したところで、検知温度Taお
よび検知温度Tfが設定温度Tas,Tfsを保つよう
に、圧縮機1の運転周波数Fおよび流量調整弁11,1
2の開度が制御される(床冷房+エアコン冷房)。 (j)自動モードの連動冷房運転(図9により説明す
る) 四方弁2がオフされ、室内ファン22がオンされ、ポン
プ15が運転されるとともに、圧縮機1が最大運転周波
数Fmaxで運転されながら、流量調整弁11,12が
中間開度に設定される。(エアコン冷房開始+床冷房開
始) その後、室内温度センサ23の検知温度Taが設定温度
Tasに達したところで、検知温度Taが設定温度Ta
sを保つように流量調整弁11,12の開度が制御され
る。また、床温度センサ29の検知温度Tfが設定温度
Tfsに達したところで、その検知温度Tfおよび検知
温度Taが設定温度Tfs,Tasを保つように、圧縮
機1の運転周波数Fおよび流量調整弁11,12の開度
が制御される(エアコン冷房+床冷房)。
Thereafter, the detected temperature T of the room temperature sensor 23
When a reaches the set temperature Tas, the operating frequency F of the compressor 1 and the flow rate adjusting valves 11, 1 are set so that the detected temperature Ta and the detected temperature Tf maintain the set temperatures Tas, Tfs.
2 opening is controlled (floor cooling + air conditioning cooling). (J) Interlocked cooling operation in automatic mode (described with reference to FIG. 9) The four-way valve 2 is turned off, the indoor fan 22 is turned on, the pump 15 is operated, and the compressor 1 is operated at the maximum operation frequency Fmax. The flow rate adjusting valves 11 and 12 are set to the intermediate opening degree. After that, when the detected temperature Ta of the indoor temperature sensor 23 reaches the set temperature Tas, the detected temperature Ta is set to the set temperature Ta.
The openings of the flow rate adjusting valves 11 and 12 are controlled so as to maintain s. Further, when the detected temperature Tf of the floor temperature sensor 29 reaches the set temperature Tfs, the operating frequency F and the flow rate adjustment valve 11 of the compressor 1 are set so that the detected temperature Tf and the detected temperature Ta maintain the set temperatures Tfs and Tas. , 12 are controlled (air conditioner cooling + floor cooling).

【0050】以上のように、室外機A、室内機B、分岐
ユニットDの相互の接続・切離を自在とし、その分岐ユ
ニットDに床パネルCを接続する構成としたので、室外
機Aおよび室内機Bからなる既設の空気調和機であって
も、床パネルCを後から追加したりあるいは取り除くこ
とが可能であり、高い拡張性を得ることができる。
As described above, the outdoor unit A, the indoor unit B, and the branch unit D can be freely connected / disconnected to each other, and the floor panel C is connected to the branch unit D. Even in the existing air conditioner including the indoor unit B, the floor panel C can be added or removed later, and high expandability can be obtained.

【0051】室温優先モード、床温優先モード、自動モ
ードの連動運転を選択的に実行できるので、ユーザの体
感を考慮した快適な空調を行うことができる。
Since the interlocked operation of the room temperature priority mode, the floor temperature priority mode, and the automatic mode can be selectively executed, comfortable air conditioning can be performed in consideration of the user's feeling.

【0052】連動運転の後で床暖房や床冷房の単独運転
を継続できるので、この点でも、ユーザの好みや省エネ
ルギを考慮した上での快適な空調を行うことができる。
Since the floor heating and the floor cooling can be independently operated after the interlocked operation, in this respect also, comfortable air conditioning can be performed in consideration of the user's preference and energy saving.

【0053】以下、変形例について説明する。上記実施
形態では、連動運転時、室内温度Taおよび床温度Tf
が設定温度Tas,Tfsに達した後で室内ファン22
による室内送風を継続するようにしたが、図10および
図11に示すように、室内温度Taと設定温度Tasと
の差に応じて室内ファン22のオン,オフ制御するよう
にしてもよい。こうすることにより、ユーザに不快な風
が当たるいわゆるドラフト感を解消することができる。
図10は室温優先モードの連動運転を示しており、室内
ファン22のオン,オフ制御に伴い、流量調整弁11の
開度が微小開度と所定開度(>微小開度)とに交互制御
される。
Modifications will be described below. In the above embodiment, the indoor temperature Ta and the floor temperature Tf are set during the interlocking operation.
Indoor fan 22 after the temperature reaches the set temperature Tas, Tfs
Although the indoor ventilation by the above is continued, the indoor fan 22 may be controlled to be turned on and off according to the difference between the indoor temperature Ta and the set temperature Tas as shown in FIGS. By doing so, it is possible to eliminate a so-called draft feeling in which an unpleasant wind hits the user.
FIG. 10 shows the interlocked operation in the room temperature priority mode, and the opening degree of the flow rate adjusting valve 11 is alternately controlled to a small opening degree and a predetermined opening degree (> small opening degree) in accordance with the on / off control of the indoor fan 22. To be done.

【0054】図12に示すように、室外機Aに石油燃焼
型またはガス燃焼型の暖房用熱源として冷媒加熱器60
を設けてもよい。この冷媒加熱器60の採用に伴い、冷
媒流を規制する二方弁(開閉弁)61および逆止弁6
2,63が設けられる。この場合の各運転モードと各部
の動作状態との関係を図13に示している。
As shown in FIG. 12, the outdoor unit A has a refrigerant heater 60 as a heat source for heating of oil burning type or gas burning type.
May be provided. With the adoption of the refrigerant heater 60, a two-way valve (open / close valve) 61 and a check valve 6 that regulate the refrigerant flow.
2, 63 are provided. FIG. 13 shows the relationship between each operation mode and the operating state of each part in this case.

【0055】上記実施形態では、分岐ユニットDから床
パネルCにかけて水循環サイクルを設けたが、図14に
示すように、水循環サイクルに代えて冷凍サイクルの配
管を設けてもよい。すなわち、室内機Bおよび床パネル
Cが分岐ユニットDに対して並列に冷媒管接続された形
となる。これにより、水熱交換器13、水タンク14、
ポンプ15、水管16、水抜き栓17が不要となる。こ
の場合の各運転モードと各部の動作状態との関係を図1
5に示している。
In the above embodiment, the water circulation cycle is provided from the branch unit D to the floor panel C. However, as shown in FIG. 14, piping for the refrigeration cycle may be provided instead of the water circulation cycle. That is, the indoor unit B and the floor panel C are connected to the branch unit D in parallel with the refrigerant pipes. As a result, the water heat exchanger 13, the water tank 14,
The pump 15, water pipe 16 and drain plug 17 are not required. FIG. 1 shows the relationship between each operation mode and the operation state of each part in this case.
5 shows.

【0056】図16に示すように、複数の室内機Ba,
Bb…および複数の床パネルCa,Cb…を設ける構成
としてもよい。すなわち、室外機Aおよび複数の室内機
Ba,Bb…からなるマルチタイプの空気調和機に複数
の床パネルCa,Cb…が追加された構成となる。その
他、この発明は上記各実施形態に限定されるものではな
く、要旨を変えない範囲で種々変形実施可能である。
As shown in FIG. 16, a plurality of indoor units Ba,
Bb ... And a plurality of floor panels Ca, Cb ... may be provided. That is, a plurality of floor panels Ca, Cb ... Are added to the multi-type air conditioner including the outdoor unit A and the plurality of indoor units Ba, Bb. In addition, the present invention is not limited to the above-described embodiments, and various modifications can be made without departing from the scope of the invention.

【0057】[0057]

【発明の効果】以上述べたようにこの発明によれば、床
パネルを後から追加したりあるいは取り除くことが可能
な拡張性にすぐれた空気調和機を提供できる。
As described above, according to the present invention, it is possible to provide an air conditioner having an excellent expandability in which floor panels can be added or removed later.

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

【図1】一実施形態の構成を示す図。FIG. 1 is a diagram showing a configuration of an embodiment.

【図2】一実施形態の各運転モードと各部の動作状態と
の関係を示す図。
FIG. 2 is a diagram showing a relationship between each operation mode and an operation state of each unit according to the embodiment.

【図3】一実施形態の室温優先モードの連動暖房運転を
説明するための図。
FIG. 3 is a diagram for explaining an interlocking heating operation in a room temperature priority mode according to an embodiment.

【図4】一実施形態の床温優先モードの連動暖房運転を
説明するための図。
FIG. 4 is a diagram for explaining a linked heating operation in a floor temperature priority mode according to an embodiment.

【図5】一実施形態の自動モードの連動暖房運転を説明
するための図。
FIG. 5 is a diagram for explaining an interlocking heating operation in an automatic mode according to an embodiment.

【図6】一実施形態の室温優先モードの連動暖房運転お
よびそれに続く床暖房の単独運転を説明するための図。
FIG. 6 is a diagram for explaining an interlocking heating operation in a room temperature priority mode and an independent operation of the subsequent floor heating according to the embodiment.

【図7】一実施形態の室温優先モードの連動冷房運転を
説明するための図。
FIG. 7 is a diagram for explaining the linked cooling operation in the room temperature priority mode according to the embodiment.

【図8】一実施形態の床温優先モードの連動冷房運転を
説明するための図。
FIG. 8 is a diagram for explaining the linked cooling operation in the floor temperature priority mode according to the embodiment.

【図9】一実施形態の自動モードの連動冷房運転を説明
するための図。
FIG. 9 is a diagram for explaining the linked cooling operation in the automatic mode according to the embodiment.

【図10】一実施形態の変形例における室温優先モード
の連動暖房運転を説明するための図。
FIG. 10 is a diagram for explaining a linked heating operation in a room temperature priority mode according to a modified example of the embodiment.

【図11】図10の制御を示すフローチャート。11 is a flowchart showing the control of FIG.

【図12】一実施形態の他の変形例の構成を示す図。FIG. 12 is a diagram showing a configuration of another modified example of the embodiment.

【図13】図12における各運転モードと各部の動作状
態との関係を示す図。
FIG. 13 is a diagram showing a relationship between each operation mode in FIG. 12 and an operation state of each part.

【図14】一実施形態の別の変形例の構成を示す図。FIG. 14 is a diagram showing the configuration of another modification of the embodiment.

【図15】図14における各運転モードと各部の動作状
態との関係を示す図。
FIG. 15 is a diagram showing a relationship between each operation mode in FIG. 14 and an operation state of each part.

【図16】一実施形態のさらに別の変形例の構成を示す
図。
FIG. 16 is a diagram showing a configuration of still another modified example of the embodiment.

【符号の説明】[Explanation of symbols]

A…室外機、B…室内機、C…床パネル、D…分岐ユニ
ット、1…圧縮機、3…室外熱交換器、11…流量調整
弁(第1流量調整弁)、12…流量調整弁(第2流量調
整弁)、13…水熱交換器、14…水タンク、15…ポ
ンプ、16…水管、21…室内熱交換器、23…室内温
度センサ、28…放熱用配管、29…床温度センサ、3
0…室外制御器、31…インバータ、40…分岐ユニッ
ト制御器、50…室内制御器、51…リモコン
A ... outdoor unit, B ... indoor unit, C ... floor panel, D ... branching unit, 1 ... compressor, 3 ... outdoor heat exchanger, 11 ... flow rate adjusting valve (first flow rate adjusting valve), 12 ... flow rate adjusting valve (Second flow rate adjusting valve), 13 ... Water heat exchanger, 14 ... Water tank, 15 ... Pump, 16 ... Water pipe, 21 ... Indoor heat exchanger, 23 ... Indoor temperature sensor, 28 ... Radiating pipe, 29 ... Floor Temperature sensor, 3
0 ... outdoor controller, 31 ... inverter, 40 ... branching unit controller, 50 ... indoor controller, 51 ... remote controller

───────────────────────────────────────────────────── フロントページの続き (72)発明者 大越 靖二 静岡県富士市蓼原336番地 東芝キヤリア 株式会社内 (72)発明者 望月 武 静岡県富士市蓼原336番地 東芝キヤリア 株式会社内 Fターム(参考) 3L050 BC10 3L060 AA08 CC01 CC02 DD02 EE04 EE09 3L070 AA02 AA09 BB01 DD02 DD07 DF01 DF08 DG06    ─────────────────────────────────────────────────── ─── Continued front page    (72) Inventor Yasuji Ogoshi             336 Tatehara, Fuji City, Shizuoka Prefecture Toshiba Carrier             Within the corporation (72) Inventor Takeshi Mochizuki             336 Tatehara, Fuji City, Shizuoka Prefecture Toshiba Carrier             Within the corporation F-term (reference) 3L050 BC10                 3L060 AA08 CC01 CC02 DD02 EE04                       EE09                 3L070 AA02 AA09 BB01 DD02 DD07                       DF01 DF08 DG06

Claims (11)

【特許請求の範囲】[Claims] 【請求項1】 室外機および室内機を備えた空気調和機
において、 前記室外機および前記室内機の接続間に接続される分岐
ユニットと、 前記分岐ユニットに接続される床パネルと、 を備えたことを特徴とする空気調和機。
1. An air conditioner including an outdoor unit and an indoor unit, comprising: a branch unit connected between the connection of the outdoor unit and the indoor unit; and a floor panel connected to the branch unit. An air conditioner characterized by that.
【請求項2】 請求項1に記載の空気調和機において、 前記室外機、前記室内機、前記分岐ユニットは、相互の
接続・切離が自在であることを特徴とする空気調和機。
2. The air conditioner according to claim 1, wherein the outdoor unit, the indoor unit, and the branch unit can be freely connected / disconnected from each other.
【請求項3】 圧縮機、四方弁、室外熱交換器を有する
室外機と、 室内熱交換器を有する室内機と、 放熱用配管を有する床パネルと、 第1流量調整弁、第2流量調整弁、水熱交換器、水タン
ク、ポンプを有する分岐ユニットと、 前記圧縮機から吐出される冷媒を前記四方弁、前記室外
熱交換器、前記第1流量調整弁、前記室内熱交換器に通
して圧縮機に戻す室内冷暖房用の冷媒流路を有するとと
もに、圧縮機から吐出される冷媒を前記四方弁、前記室
外熱交換器、前記第2流量調整弁、前記水熱交換器に通
して圧縮機に戻す床冷暖房用の冷媒流路を有する冷凍サ
イクルと、 前記水タンク内の水を前記ポンプにより前記床パネルの
放熱用配管および前記水熱交換器を通して循環させる水
循環サイクルと、 を備えたことを特徴とする空気調和機。
3. An outdoor unit having a compressor, a four-way valve, an outdoor heat exchanger, an indoor unit having an indoor heat exchanger, a floor panel having a heat radiation pipe, a first flow rate control valve, and a second flow rate control. A branch unit having a valve, a water heat exchanger, a water tank, and a pump, and a refrigerant discharged from the compressor is passed through the four-way valve, the outdoor heat exchanger, the first flow rate adjusting valve, and the indoor heat exchanger. A refrigerant flow path for indoor cooling and heating is returned to the compressor, and the refrigerant discharged from the compressor is compressed by passing through the four-way valve, the outdoor heat exchanger, the second flow rate adjusting valve, and the water heat exchanger. A refrigerating cycle having a refrigerant flow path for floor cooling and heating, which is returned to the machine, and a water circulation cycle in which water in the water tank is circulated by the pump through the heat radiation pipe of the floor panel and the water heat exchanger. Air conditioner characterized by .
【請求項4】 圧縮機、四方弁、室外熱交換器を有する
室外機と、 室内熱交換器を有する室内機と、 放熱用配管を有する床パネルと、 第1流量調整弁、第2流量調整弁を有する分岐ユニット
と、 前記圧縮機から吐出される冷媒を前記四方弁、前記室外
熱交換器、前記第1流量調整弁、前記室内熱交換器に通
して圧縮機に戻す室内冷暖房用の冷媒流路を有するとと
もに、圧縮機から吐出される冷媒を前記四方弁、前記室
外熱交換器、前記第2流量調整弁、前記放熱用配管に通
して圧縮機に戻す床冷暖房用の冷媒流路を有する冷凍サ
イクルと、を備えたことを特徴とする空気調和機。
4. An outdoor unit having a compressor, a four-way valve, an outdoor heat exchanger, an indoor unit having an indoor heat exchanger, a floor panel having a heat radiation pipe, a first flow control valve, and a second flow control. A branch unit having a valve, and a refrigerant for indoor cooling and heating that returns the refrigerant discharged from the compressor to the compressor by passing through the four-way valve, the outdoor heat exchanger, the first flow rate adjusting valve, the indoor heat exchanger. A refrigerant flow path for floor cooling and heating that has a flow path and returns the refrigerant discharged from the compressor to the compressor by passing through the four-way valve, the outdoor heat exchanger, the second flow rate adjusting valve, the heat radiation pipe. An air conditioner comprising: a refrigerating cycle having.
【請求項5】 請求項3または請求項4に記載の空気調
和機において、 前記冷凍サイクルは、冷媒流路を構成する配管が前記室
外機、前記室内機、前記分岐ユニットの個々に分かれて
相互の接続・切離が自在であることを特徴とする空気調
和機。
5. The air conditioner according to claim 3 or 4, wherein in the refrigeration cycle, a pipe forming a refrigerant flow path is divided into the outdoor unit, the indoor unit, and the branch unit, respectively, and mutually connected. An air conditioner that can be connected and disconnected freely.
【請求項6】 請求項3に記載の空気調和機において、 前記室外機が設置される部屋の室内温度を検知する室内
温度センサと、 前記床パネルの温度を検知する床温度センサと、 前記ポンプを停止した状態で前記圧縮機を最大運転周波
数で運転しながら前記第1流量調整弁を最大開度に設定
して前記第2流量調整弁を微小開度または全閉状態に設
定し、その後、前記室内温度センサの検知温度Taが設
定温度Tasに達したところで前記ポンプを運転して前
記第2流量調整弁を最大開度に設定するとともに検知温
度Taが設定温度Tasを保つように前記第1流量調整
弁の開度を制御し、その後、前記床温度センサの検知温
度Tfが設定温度Tfsに達したところで検知温度Tf
および検知温度Taが設定温度Tfs,Tasを保つよ
うに前記圧縮機の運転周波数および前記各流量調整弁の
開度を制御する室温優先モードの連動運転手段と、 前記ポンプを運転するとともに前記圧縮機を最大運転周
波数で運転しながら前記第1流量調整弁を微小開度また
は全閉状態に設定して前記第2流量調整弁を最大開度に
設定し、その後、前記床温度センサの検知温度Tfが設
定温度Tfsに達したところで前記第1流量調整弁を最
大開度に設定するとともに検知温度Tfが設定温度Tf
sを保つように前記第2流量調整弁の開度を制御し、そ
の後、前記室内温度センサの検知温度Taが設定温度T
asに達したところで検知温度Taおよび検知温度Tf
が設定温度Tas,Tfsを保つように前記圧縮機の運
転周波数および前記各流量調整弁の開度を制御する床温
優先モードの連動運転手段と、 前記ポンプを運転するとともに前記圧縮機を最大運転周
波数で運転しながら前記各流量調整弁を中間開度に設定
し、その後、前記室内温度センサの検知温度Taが設定
温度Tasに達したところで検知温度Taが設定温度T
asを保つように前記各流量調整弁の開度を制御し、か
つ前記床温度センサの検知温度Tfが設定温度Tfsに
達したところで検知温度Tfおよび検知温度Taが設定
温度Tfs,Tasを保つように前記圧縮機の運転周波
数および前記各流量調整弁の開度を制御する自動モード
の連動運転手段と、 をさらに備えたことを特徴とする空気調和機。
6. The air conditioner according to claim 3, wherein an indoor temperature sensor that detects an indoor temperature of a room in which the outdoor unit is installed, a floor temperature sensor that detects a temperature of the floor panel, and the pump While operating the compressor at the maximum operating frequency in the state of stopping the, the first flow rate adjusting valve is set to the maximum opening degree and the second flow rate adjusting valve is set to the minute opening degree or the fully closed state, and thereafter, When the detected temperature Ta of the indoor temperature sensor reaches the set temperature Tas, the pump is operated to set the second flow rate adjusting valve to the maximum opening degree, and the detected temperature Ta is maintained at the set temperature Tas. The opening of the flow rate adjusting valve is controlled, and thereafter, when the detected temperature Tf of the floor temperature sensor reaches the set temperature Tfs, the detected temperature Tf
And a room temperature priority mode interlocking operation means for controlling the operating frequency of the compressor and the opening of each of the flow rate adjusting valves so that the detected temperature Ta maintains the set temperatures Tfs and Tas, and the compressor while operating the pump. Operating at the maximum operating frequency, the first flow rate adjusting valve is set to a minute opening degree or a fully closed state and the second flow rate adjusting valve is set to the maximum opening degree, and then the detected temperature Tf of the floor temperature sensor is set. When the temperature reaches the set temperature Tfs, the first flow rate adjusting valve is set to the maximum opening and the detected temperature Tf is set to the set temperature Tf.
The opening degree of the second flow rate adjusting valve is controlled so as to maintain s, and then the detected temperature Ta of the indoor temperature sensor is set to the set temperature T.
Detected temperature Ta and detected temperature Tf when reaching as
Is a floor temperature priority mode interlocking operation means for controlling the operating frequency of the compressor and the opening of each of the flow rate adjusting valves so as to maintain the set temperatures Tas and Tfs, and the pump and the maximum operation of the compressor. Each of the flow rate adjusting valves is set to an intermediate opening while operating at a frequency, and thereafter, when the detected temperature Ta of the indoor temperature sensor reaches the set temperature Tas, the detected temperature Ta is set to the set temperature T.
The opening degree of each of the flow rate adjusting valves is controlled so as to maintain as, and the detection temperature Tf and the detection temperature Ta are maintained at the set temperatures Tfs and Tas when the detected temperature Tf of the floor temperature sensor reaches the set temperature Tfs. An air conditioner further comprising: an automatic mode interlocking operation means for controlling an operating frequency of the compressor and an opening of each of the flow rate adjusting valves.
【請求項7】 請求項4に記載の空気調和機において、 前記室外機が設置される部屋の室内温度を検知する室内
温度センサと、 前記床パネルの温度を検知する床温度センサと、 前記圧縮機を最大運転周波数で運転しながら前記第1流
量調整弁を最大開度に設定して前記第2流量調整弁を微
小開度または全閉状態に設定し、その後、前記室内温度
センサの検知温度Taが設定温度Tasに達したところ
で前記第2流量調整弁を最大開度に設定するとともに検
知温度Taが設定温度Tasを保つように前記第1流量
調整弁の開度を制御し、その後、前記床温度センサの検
知温度Tfが設定温度Tfsに達したところで検知温度
Tfおよび検知温度Taが設定温度Tfs,Tasを保
つように前記圧縮機の運転周波数および前記各流量調整
弁の開度を制御する室温優先モードの連動運転手段と、 前記圧縮機を最大運転周波数で運転しながら前記第1流
量調整弁を微小開度または全閉状態に設定して前記第2
流量調整弁を最大開度に設定し、その後、前記床温度セ
ンサの検知温度Tfが設定温度Tfsに達したところで
前記第1流量調整弁を最大開度に設定するとともに検知
温度Tfが設定温度Tfsを保つように前記第2流量調
整弁の開度を制御し、その後、前記室内温度センサの検
知温度Taが設定温度Tasに達したところで検知温度
Taおよび検知温度Tfが設定温度Tas,Tfsを保
つように前記圧縮機の運転周波数および前記各流量調整
弁の開度を制御する床温優先モードの連動運転手段と、 前記圧縮機を最大運転周波数で運転しながら前記各流量
調整弁を中間開度に設定し、その後、前記室内温度セン
サの検知温度Taが設定温度Tasに達したところで検
知温度Taが設定温度Tasを保つように前記各流量調
整弁の開度を制御し、かつ前記床温度センサの検知温度
Tfが設定温度Tfsに達したところで検知温度Tfお
よび検知温度Taが設定温度Tfs,Tasを保つよう
に前記圧縮機の運転周波数および前記各流量調整弁の開
度を制御する自動モードの連動運転手段と、 をさらに備えたことを特徴とする空気調和機。
7. The air conditioner according to claim 4, wherein an indoor temperature sensor that detects an indoor temperature of a room in which the outdoor unit is installed; a floor temperature sensor that detects a temperature of the floor panel; While operating the machine at the maximum operating frequency, the first flow rate adjusting valve is set to the maximum opening degree and the second flow rate adjusting valve is set to the minute opening degree or the fully closed state, and then the temperature detected by the indoor temperature sensor is set. When Ta reaches the set temperature Tas, the second flow rate adjusting valve is set to the maximum opening degree, and the opening degree of the first flow rate adjusting valve is controlled so that the detected temperature Ta maintains the set temperature Tas, and then the When the detected temperature Tf of the floor temperature sensor reaches the set temperature Tfs, the operating frequency of the compressor and the opening of each of the flow rate adjusting valves are set so that the detected temperature Tf and the detected temperature Ta maintain the set temperatures Tfs and Tas. Room temperature priority mode interlocking operation means for controlling the temperature of the second flow control valve, and the second flow rate control valve is set to a minute opening or a fully closed state while operating the compressor at a maximum operation frequency.
The flow rate adjusting valve is set to the maximum opening, and then, when the detected temperature Tf of the floor temperature sensor reaches the set temperature Tfs, the first flow rate adjusting valve is set to the maximum opening and the detected temperature Tf is set to the set temperature Tfs. The opening degree of the second flow rate adjusting valve is controlled so as to maintain the temperature, and thereafter, when the detected temperature Ta of the indoor temperature sensor reaches the set temperature Tas, the detected temperature Ta and the detected temperature Tf keep the set temperatures Tas and Tfs. Interlocking operation means of the bed temperature priority mode for controlling the operating frequency of the compressor and the opening degree of each flow rate adjusting valve, and the intermediate opening degree of each flow rate adjusting valve while operating the compressor at the maximum operating frequency. After that, when the detected temperature Ta of the indoor temperature sensor reaches the set temperature Tas, the opening degree of each flow rate control valve is controlled so that the detected temperature Ta maintains the set temperature Tas. And, when the detected temperature Tf of the floor temperature sensor reaches the set temperature Tfs, the operating frequency of the compressor and the opening of each of the flow rate adjusting valves are maintained so that the detected temperature Tf and the detected temperature Ta maintain the set temperatures Tfs and Tas. An air conditioner characterized by further comprising: an automatic mode interlocking operation means for controlling temperature.
【請求項8】 請求項6または請求項7に記載の空気調
和機において、 前記各連動運転手段のいずれかの制御を選択的に実行す
るための操作手段、をさらに備えたことを特徴とする空
気調和機。
8. The air conditioner according to claim 6 or 7, further comprising operation means for selectively executing control of any of the interlocking operation means. Air conditioner.
【請求項9】 請求項6または請求項7に記載の空気調
和機において、 前記各連動運転手段の制御により検知温度Ta,Tfが
設定温度Tas,Tfsに達した後で前記室内機の運転
を停止して前記床パネルの単独運転に移行するか否かを
設定するための操作手段、をさらに備えたことを特徴と
する空気調和機。
9. The air conditioner according to claim 6 or 7, wherein the operation of the indoor unit is started after the detection temperatures Ta and Tf reach the set temperatures Tas and Tfs by the control of the interlocking operation means. An air conditioner further comprising operating means for setting whether or not to stop and shift to independent operation of the floor panel.
【請求項10】 請求項1ないし請求項9のいずれかに
記載の空気調和機において、 前記室外機は、石油燃焼型またはガス燃焼型の冷媒加熱
器を暖房用熱源として有することを特徴とする空気調和
機。
10. The air conditioner according to any one of claims 1 to 9, wherein the outdoor unit has a petroleum combustion type or gas combustion type refrigerant heater as a heat source for heating. Air conditioner.
【請求項11】 請求項1ないし請求項9のいずれかに
記載の空気調和機において、 前記室内機および前記床パネルは、それぞれ複数設けら
れていることを特徴とする空気調和機。
11. The air conditioner according to claim 1, wherein a plurality of indoor units and a plurality of floor panels are provided.
JP2002130377A 2002-05-02 2002-05-02 Air conditioner Pending JP2003322388A (en)

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