JPS59137745A - Heat pump type hot water supplying device - Google Patents
Heat pump type hot water supplying deviceInfo
- Publication number
- JPS59137745A JPS59137745A JP58011990A JP1199083A JPS59137745A JP S59137745 A JPS59137745 A JP S59137745A JP 58011990 A JP58011990 A JP 58011990A JP 1199083 A JP1199083 A JP 1199083A JP S59137745 A JPS59137745 A JP S59137745A
- Authority
- JP
- Japan
- Prior art keywords
- hot water
- heat exchanger
- tank
- storage tank
- temperature
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Granted
Links
Classifications
-
- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24D—DOMESTIC- OR SPACE-HEATING SYSTEMS, e.g. CENTRAL HEATING SYSTEMS; DOMESTIC HOT-WATER SUPPLY SYSTEMS; ELEMENTS OR COMPONENTS THEREFOR
- F24D17/00—Domestic hot-water supply systems
- F24D17/02—Domestic hot-water supply systems using heat pumps
Abstract
Description
【発明の詳細な説明】
本発明はヒートポンプ式給湯機に関し、詳しくは、デフ
【」スト運転に起因する給ｉ調度の低下防止構造に関す
る。DETAILED DESCRIPTION OF THE INVENTION The present invention relates to a heat pump type water heater, and more particularly, to a structure for preventing a decrease in water supply level due to differential operation.
従来Ｊ：す、ヒートポンプ式給湯機として例えば実開昭
５５−８９９６３号公報に開示されたものが知られてい
る。このものは、第３図に示ずＪ：うに、圧縮機（ａ
）と、貯湯槽（ｂ）ど給湯用熱交換器（０）と、熱源側
熱交換器（ｄ ）と、四路切換弁（ｅ）と、３個の電磁
弁（ｆ）〜（１１）とを備え、該四路切換弁（ｅ）と３
個の電磁弁（ｆ）〜（１１）を図示の如（切換えて、圧
縮機（ａ ＞から冷媒を給湯用熱交換器（Ｃ）に圧送し
たのち熱源側熱交換器（ｄ ）を杆で圧縮機（ａ ）に
戻ずことを繰返ずことにより、貯湯槽（ｂ）の下部から
の給湯用熱交換器＜Ｃ＞に圧送された水に熱量を与えて
高温としたのち、この潟を再び貯湯槽（１））の上部に
戻して貯溜するようになされている。BACKGROUND ART Conventionally, a heat pump water heater disclosed in, for example, Japanese Utility Model Application Publication No. 55-89963 is known. This is not shown in Figure 3.
), a hot water supply heat exchanger (0) in the hot water storage tank (b), a heat source side heat exchanger (d), a four-way switching valve (e), and three solenoid valves (f) to (11). and the four-way switching valve (e);
After switching the solenoid valves (f) to (11) as shown in the figure, the refrigerant is fed from the compressor (a) to the hot water heat exchanger (C), and then the heat source side heat exchanger (d) is connected to the heat exchanger (d) using the rod. By repeating the process of not returning to the compressor (a), the water pumped from the lower part of the hot water storage tank (b) to the hot water supply heat exchanger <C> is given heat and heated to a high temperature. The hot water is returned to the upper part of the hot water tank (1) and stored there.
ところで、ヒートポンプ式給湯機にａ５いては、−２−
給温運転時において熱源側熱交換器（（１）にフロスト
（＠霜）が生じると、第４図に示すように、圧縮機（ａ
）と熱源側熱交換器（ｄ ＞との間で冷媒を循環させ
てデフロスト（融解）することが行われている（上記公
報中筒７図参照）、、シかし上記従来のものではデフロ
ス１〜熱量が少なくデフロストに長時間を要するという
欠点があった。このため、通常、冷媒循環系統を給湯サ
イクルとは逆サイクルに切換えて、圧ｍｉ！１ｌ（ａ）
からの冷媒を熱源側熱交換器（ｄ ）に圧送したのち給
湯用熱交換器（Ｃ）を経て圧縮ＩＩ（ａ）に戻すことを
繰返Ｊ−ことにより、給湯用熱交換器（Ｃ）で貯湯槽（
１））の湯を熱源として取１クシた熱量を上記熱源側熱
交換器（ｄ ）に与えてデフロスト時間を短縮すること
が行われる。By the way, in the heat pump water heater A5, if frost occurs on the heat source side heat exchanger ((1) during heating operation, the compressor (a
) and the heat source side heat exchanger (d >) to defrost (melt) the refrigerant (see Figure 7 of the above-mentioned publication). 1 - The disadvantage is that the amount of heat is small and it takes a long time to defrost.For this reason, the refrigerant circulation system is usually switched to the reverse cycle of the hot water supply cycle to reduce the pressure to 1l(a).
The refrigerant from the hot water supply heat exchanger (C) is repeatedly pumped to the heat source side heat exchanger (d), and then returned to compression II (a) via the hot water supply heat exchanger (C). In the hot water tank (
The defrosting time is shortened by supplying the heat extracted from the hot water in 1)) as a heat source to the heat source side heat exchanger (d).
しかるに、この場合には、デフ［１ス１〜運転時におい
て（ま、貯湯槽下部の湖が給湯用熱交換器（Ｃ）に圧送
され該熱交換器（Ｃ）で熱量を奪われ低温水となって貯
湯槽下部に戻ることが繰返されることになるため、貯湯
槽（１））上部の湯の濡面が低−３−
下して、貯湯槽（ｂ）上部に連通する給湯栓（ｉ）・・
・からの場の給湯濡面が低下するという欠点があった。However, in this case, during differential operation, the lake at the bottom of the hot water storage tank is fed under pressure to the hot water supply heat exchanger (C), and the heat exchanger (C) removes heat, causing low-temperature water to flow. As a result, the wet surface of the hot water at the top of the hot water tank (1) drops to a low level, and the hot water tap ( i)...
・There was a drawback that the hot water supply wet surface of the hot water supply area was reduced.
そこで、本発明は斯かる点に鑑み、ヒートポンプ式給湯
機において、給湯運転およびデフロス１〜運転の双方で
貯湯（ｎと給湯用熱交換器との間の熱授受を貯湯槽下部
の水において行うようにすることにより、デフロスト運
転時においても貯湯槽下部の温痘低下を招くことがない
ようにして、デフロス１〜運転に起因する給温温度の低
下を防止することを目的とするものである。In view of the above, the present invention provides a heat pump type water heater that transfers heat between the hot water storage (n) and the hot water supply heat exchanger in the water at the bottom of the hot water storage tank in both hot water supply operation and defrost 1 to defrost operation. By doing so, the purpose is to prevent a drop in temperature at the bottom of the hot water storage tank even during defrost operation, and to prevent a drop in the heating temperature caused by defrost operation. .
この目的を達成づ−るため、本発明では、ピー１〜ポ２
フ式冷凍サイクルにより発熱する熱交換器によって貯湯
槽の水を加熱づ°るようにした加熱装置を備えたヒート
ポンプ式給湯機において、上記加熱装置の熱交換器と貯
湯槽下部の水とを熱交換させるようにしたものである。In order to achieve this purpose, the present invention provides P1 to P2.
In a heat pump water heater equipped with a heating device that heats water in a hot water tank using a heat exchanger that generates heat through a double-sided refrigeration cycle, the heat exchanger of the heating device heats the water at the bottom of the hot water storage tank. It was designed to be exchanged.
以下、本発明の実施例を図面に基いて詳細に説明する。Embodiments of the present invention will be described in detail below with reference to the drawings.
第１図は本発明をセパレート形の冷暖房給湯機−４−
に適用した場合の第１実施例を示し、（１）は圧縮機、
（２）は室内熱交換器、（３）は室外熱交換器、（４）
は内部に水を貯溜する貯湯槽、（５）は該貯）易槽（４
）の外部に設けられ該貯湯槽（４）の水を加熱づ−るた
めの給湯用熱交換器であって、該給湯用熱交換器（５）
と貯湯槽（４）とは循環通路（６）により貯湯槽〈４）
の水が循環可能に連結され、該循環通路（６）には循環
用ポンプ（７）が介設されており、貯湯槽（４）の水を
循環通路（６）を介して給湯用熱交換器（５）に圧送循
環することにより、給湯用熱交換器（５）で発熱する熱
量を循環水に与えて貯湯槽（４）内の水を加熱するよう
にした加熱装置（８）を構成している。また、（９）は
上記室内熱交換器（２）および給湯用熱交換器（５）か
らの室外熱交換器（３）への冷媒が流通する膨張弁、（
１０）は室外熱交換器（３）および給湯用熱交換器（５
）からの室内熱交換器（２）への冷媒が流通する膨張弁
、（１１）は受液器、（１２）はアキュムレータ、（１
３）・・・は上記貯湯槽（４）の上部に連通−５−
する複数個の給湯栓である。さらに、（ＳＶ＋ ）は圧
縮機〈１〉から室内熱交換器（２）への冷媒通路を開閉
する電磁弁、（ＳＶ２ ）は圧縮機（１）から室外熱交
換器（３）への冷媒通路を開閉する電磁弁、（ＳＶ３
）は圧縮機〈１）から給湯用熱交換器（５）への冷媒通
路を開閉する電磁弁、＜ＳＶ４ ）は室内熱交換器（２
）からアキュムレータ（１２）への冷媒通路を開閉する
電磁弁、（ＳＶ５ ）は膨張弁〈９）への冷媒通路を開
閉する電磁弁、（ＳＶａ ）は受液器（１１）から給湯
用熱交換器（５）への冷媒通路を開閉する電磁弁、（Ｓ
Ｖ７ ）は室外熱交換器（３）からアキュムレータ〈１
２）への冷媒通路を開閉する電磁弁、（ＳＶａ ）は給
湯用熱交換器（５）からアキュムレータ（１２）への冷
媒通路を開閉する電磁弁、（ＳＶｓ ）は膨張弁（１０
）への冷媒通路を開閉する電磁弁である。FIG. 1 shows a first embodiment in which the present invention is applied to a separate air-conditioning/heating water heater-4-, in which (1) is a compressor;
(2) is an indoor heat exchanger, (3) is an outdoor heat exchanger, (4)
(5) is a hot water tank that stores water inside, (5) is a hot water tank (4)
) for heating the water in the hot water storage tank (4), the hot water heat exchanger (5)
The hot water storage tank (4) is connected to the hot water storage tank (4) by the circulation passage (6).
A circulation pump (7) is interposed in the circulation passage (6), and the water in the hot water storage tank (4) is passed through the circulation passage (6) for heat exchange for hot water supply. A heating device (8) is configured to heat the water in the hot water storage tank (4) by supplying the heat generated by the hot water supply heat exchanger (5) to the circulating water by circulating the water under pressure to the hot water tank (5). are doing. (9) is an expansion valve through which refrigerant flows from the indoor heat exchanger (2) and hot water supply heat exchanger (5) to the outdoor heat exchanger (3);
10) is an outdoor heat exchanger (3) and a hot water supply heat exchanger (5)
) through which the refrigerant flows to the indoor heat exchanger (2), (11) is the liquid receiver, (12) is the accumulator, (1
3)... are a plurality of hot water taps connected to the upper part of the hot water storage tank (4). Furthermore, (SV+) is a solenoid valve that opens and closes the refrigerant passage from the compressor <1> to the indoor heat exchanger (2), and (SV2) is the refrigerant passage from the compressor (1) to the outdoor heat exchanger (3). Solenoid valve that opens and closes (SV3
) is a solenoid valve that opens and closes the refrigerant passage from the compressor (1) to the hot water heat exchanger (5), and <SV4) is the solenoid valve that opens and closes the refrigerant passage from the compressor (1) to the hot water heat exchanger (5).
) to the accumulator (12), (SV5) is the solenoid valve that opens and closes the refrigerant passage to the expansion valve (9), (SVa) is the heat exchanger for hot water supply from the liquid receiver (11). A solenoid valve (S
V7) is connected from the outdoor heat exchanger (3) to the accumulator <1
(SVa) is a solenoid valve that opens and closes the refrigerant passage from the hot water heat exchanger (5) to the accumulator (12), (SVs) is the expansion valve (10).
) is a solenoid valve that opens and closes the refrigerant passage to the
そして、上記９個の電磁弁（ＳＶ＋ ）〜（ＳＶ９）は
制御装置（図示せず）によって開閉制御されるもので、
下表に示すように、表中第１列目の＝ ６ −
如く切換えることにより、圧縮機（１）からの冷媒を室
外熱交換器（３）から室内熱交換器（２）に循環させて
冷房運転を行い、表中第２ ＋１１目の如く切換えるこ
とにより圧縮機（１）からの冷媒を給湯用熱交換器（５
）から室内熱交換器（２）に循環させて室内を冷房する
と同時に、室内から得た熱量を給湯用熱交換器（５）で
貯湯槽（４）からの循環水に与えて貯）易槽（４）の水
を加熱するｊ：うにした冷房給湯運転を行い、表中第３
列目の如く切換えることにより圧縮機（１）からの冷媒
を給湯用熱交換器（５）から室外熱交換器（３）に循環
させて貯湯槽（４）の水を加熱する給温運転を行い、ま
た表中第４列目の如く切換えることにＪ：り圧縮機（１
）からの冷媒を室内熱交換器（２）から室外熱交換器（
３）に循環させて暖房運転を行い、さらに表中第５列目
の如く切換えることにＪ：り圧縮機（１）からの冷媒を
室外熱交換器（３）に流したのち受液器（１１）から給
湯用熱交換器（５）を経て再び圧１ｉｉ１１（１）に戻
して貯湯槽（４）の湯を熱源とした給温運転時にお（Ｊ
−７−
る室外熱交換器（３）Ｃのデフロス１へを行うようにし
ている。The nine solenoid valves (SV+) to (SV9) are controlled to open and close by a control device (not shown).
As shown in the table below, the refrigerant from the compressor (1) is circulated from the outdoor heat exchanger (3) to the indoor heat exchanger (2) by switching as shown in the first column = 6 -. By performing cooling operation and switching as shown in numbers 2 to 11 in the table, the refrigerant from the compressor (1) is transferred to the hot water heat exchanger (5).
) to the indoor heat exchanger (2) to cool the room, and at the same time, the heat obtained from the room is given to the hot water supply heat exchanger (5) to the circulating water from the hot water storage tank (4) for storage. (4) Heating the water: Perform the cooling hot water supply operation, and
By switching in the rows, the refrigerant from the compressor (1) is circulated from the hot water supply heat exchanger (5) to the outdoor heat exchanger (3) to heat the water in the hot water storage tank (4). J: Recompressor (1
) from the indoor heat exchanger (2) to the outdoor heat exchanger (
3) to perform heating operation, and then switch the refrigerant from the compressor (1) to the outdoor heat exchanger (3) and then to the receiver ( 11) through the hot water supply heat exchanger (5) and then returned to the pressure 1ii11(1) again, during heating operation using the hot water in the hot water storage tank (4) as the heat source.
-7- Defrost 1 of outdoor heat exchanger (3) C is performed.
そして、上記貯湯槽（４）の循環通路（６）への流出口
（６ａ）および流入口（６ｂ）は、該貯湯槽（４）の下
部に設（プられている。The outflow port (6a) and inflow port (6b) of the hot water storage tank (4) to the circulation passageway (6) are provided at the lower part of the hot water storage tank (4).
次に、上記実施例の作動について説明するに、給’Ａ
’ｒＴＪ転時ニハ、ｉｌ＆弁（ＳＶ３ ＞、（ＳＶ５
＞。Next, to explain the operation of the above embodiment, the supply 'A'
'rTJ switching niha, il & valve (SV3 >, (SV5
>.
（ＳＶ７ ）の開作動により圧縮機（１）からの冷媒は
給湯用熱交換器（５）に圧送されたのち受液器〈１１）
および膨張弁（９）を経て室外熱交換器（３）に流入し
、その後アキュムレータ（１２）−８＝
から再び圧縮機（１）に戻ることを繰返して、室外熱交
換器〈３）で室外から得た熱量を給湯用熱交換器（５）
から放熱く発熱）（−ることを繰返している。また、同
時に、貯湯槽（４）下部の水は循環用ポンプ（７）の作
動により貯湯槽（４）下部の流出口（６ａ）から循環通
路（６）を経て給湯用熱交換器（５）に圧送され室外か
ら得た熱量を取得して高温となったのち流入口（６ａ）
から貯湯槽（４）下部に戻ることを繰返して、貯湯槽〈
４）の水が加熱される。(SV7) is opened, the refrigerant from the compressor (1) is sent under pressure to the hot water supply heat exchanger (5), and then to the liquid receiver (11).
It flows into the outdoor heat exchanger (3) via the expansion valve (9), and then returns to the compressor (1) again from the accumulator (12)-8=, which is repeated until the outdoor heat exchanger (3) Heat exchanger for hot water supply (5)
At the same time, the water at the bottom of the hot water storage tank (4) is circulated from the outlet (6a) at the bottom of the hot water storage tank (4) by the operation of the circulation pump (7). The hot water is pumped through the passage (6) to the heat exchanger (5) for hot water supply, acquires the amount of heat obtained from the outside, and reaches a high temperature, then enters the inlet (6a).
Repeat the process of returning to the bottom of the hot water tank (4), and then
4) The water is heated.
一方、給温運転時にお（プるデフロスト運転時には、電
磁弁（ＳＶ２ ）、＜ＳＶａ ＞、（ＳＶａ ）の開作
動により圧縮機（１）からの冷媒は室外熱交換器（３）
に圧送されたのち受液器（１１）を経て給湯用熱交換器
（５）に流入し、再びアキュムレータ（１２）を経て圧
縮機（１）に戻ることを繰返して給湯用熱交換器（５）
で貯湯槽（４）から圧送された渇の熱量を取得してこれ
を室外熱交換器（３）に与えてデフロストしている。そ
の際、貯湯槽〈４）からの湖は貯湯槽（４）下部の−９
−
流出口（６ａ）から流出し、給湯用熱交換器（５）で熱
量を奪われて低温水となったのち流入口（６ｂ）から貯
湯槽（４）下部に戻ることを繰返すので、貯湯槽（４）
下部の湯温は低下することになるが、貯湯槽（４）上部
の湯温は低下することがなくほぼ一定で、給湯栓（１３
）・・・からの給湯湿度を高温に保持することができる
。尚、流入口（６ｂ）の口径を大きくし貯湯槽（４）下
部への流量を０．５Ｔｒｌ／Ｓとすれば、流れの影響を
ほぼ解消覆ることができるので、貯湯槽（４）上部の湯
温低下をなくすことができ、より好ましい。On the other hand, during temperature supply operation, during defrost operation, the refrigerant from the compressor (1) is transferred to the outdoor heat exchanger (3) by opening the solenoid valves (SV2), <SVa>, (SVa).
After that, it flows into the hot water heat exchanger (5) through the receiver (11), and returns to the hot water heat exchanger (5) through the accumulator (12) again, repeating this process. )
The amount of heat from the hot water pressure-fed from the hot water storage tank (4) is obtained and given to the outdoor heat exchanger (3) for defrosting. At that time, the lake from the hot water tank (4) is -9 at the bottom of the hot water tank (4).
- Water flows out from the outflow port (6a), loses heat in the hot water supply heat exchanger (5) and becomes low-temperature water, and then returns to the lower part of the hot water storage tank (4) from the inflow port (6b), which is repeated. Tank (4)
Although the water temperature at the bottom of the tank (4) will drop, the water temperature at the top of the hot water tank (4) will not drop and will remain almost constant.
)... can maintain the humidity of hot water at a high temperature. Furthermore, if the diameter of the inlet (6b) is increased and the flow rate to the lower part of the hot water storage tank (4) is set to 0.5Trl/S, the influence of the flow can be almost eliminated, so the flow rate at the upper part of the hot water storage tank (4) It is more preferable because it can eliminate the drop in hot water temperature.
また、上記第１実施例を若干変更した実施例としては、
第１図の破線のように、切換弁（１６）と上方および下
方に位置する２箇所の流入口〈６ｃ）、（６ｄ＞を設け
て、デフロスト運転時には下方の流入口（６ｄ）から水
を流入させ、給温運転時には上方の流入口（６Ｃ）から
流入させるようにしてもよい。In addition, as an example in which the above-mentioned first example is slightly modified,
As shown by the broken line in Figure 1, a switching valve (16) and two inlets <6c) and (6d> located above and below are provided, and water is drained from the lower inlet (6d) during defrost operation. It may be made to flow in from the upper inflow port (6C) during the heating operation.
また、第２図は本発明の第２実施例を示し、上記第１実
施例では給湯用熱交換器（５）を貯湯槽−１０−
（４）の外部に設Ｇ′Ｊたが、これを貯湯槽（４）の内
部に設けたものである（尚、冷媒配管系統は上記第１実
施例では９個の電１に弁（ＳＶ＋ ）〜（Ｓ＼／９）に
Ｊ：り運転状態を切換えるようにしたのに代え、２個の
四路切換弁（１４＞、（１５）により切換えるにうにな
されている）。号なわら、給湯用熱交換器（５′）は貯
湯槽（４）内下部に配置され、該給湯用熱交換器（５′
）のみによって加熱装置（８′）を構成している。Further, FIG. 2 shows a second embodiment of the present invention, and in the first embodiment described above, the hot water supply heat exchanger (5) was installed outside the hot water storage tank -10- (4). is provided inside the hot water storage tank (4) (in the first embodiment, the refrigerant piping system is connected to the nine electric currents 1 and valves (SV+) to (S\/9) in the operating state. Instead of switching between the two four-way switching valves (14 and (15)), the hot water supply heat exchanger (5') is switched between the hot water storage tank (4 ) is arranged at the inner lower part of the hot water supply heat exchanger (5'
) constitutes the heating device (8').
したがって、給湯運転時には、該給湯用熱交換器（５′
）により貯湯槽（４）下部の水が加熱されて自然対流
により貯湯槽（４）の水金体が高温となる。また、給湯
運転時にお目るデフ１］ス１〜運転時（こは、給湯用熱
交換器（５′）により貯湯槽（４）下部の湯が熱量を奪
われて低温水となるのみで、貯湯槽（４） −１＝部の
湯は熱量を奪われることがなく高温を保持する。よって
、給湯栓（１３）・・・からの給湯温度を常に高温に保
持することができる。Therefore, during hot water supply operation, the hot water supply heat exchanger (5'
) heats the water in the lower part of the hot water storage tank (4), and the water metal body in the hot water storage tank (4) becomes hot due to natural convection. In addition, during operation, the heat exchanger (5') for hot water supply removes heat from the hot water in the lower part of the hot water storage tank (4), and it becomes low-temperature water. , hot water storage tank (4) -1= maintains a high temperature without losing heat.Therefore, the temperature of hot water supplied from the hot water tap (13) . . . can always be maintained at a high temperature.
尚、上記実施例では冷暖房給温機に対して適用−１１−
した場合について説明したが、本発明はこれに限定され
ず、その他、冷房給湯機や暖房給温機に対しても同様に
適用することができるのは勿論である。In addition, although the above embodiment describes a case in which the present invention is applied to an air-conditioning/heating/heating machine, the present invention is not limited to this, and may be similarly applied to an air-conditioning/heating/heating machine or a heating/heating machine. Of course you can.
以上説明したように、本発明によれば、ピー１〜ポ２１
式冷凍サイクルににり発熱する熱交換器ににつて貯湯槽
の水を加熱するＪ：うにした加熱′１！！ｉ置を備えた
ピー１〜ポンプ式給ン易機において、上記加熱装置の熱
交換器と貯湯槽下部の水とを熱交換させるようにしたこ
とにより、デフ【−１ス１〜運転時においても貯湯槽上
部の湯温低下を防止することができるので、給湯栓から
の給湯温度を常に高温に保持しながらデフロスト時間を
短縮することができ、実用−ヒ、好ましいものどするこ
とができる。As explained above, according to the present invention, P1 to P21
J: Sea urchin heating '1! Heats the water in the hot water tank using a heat exchanger that generates heat in the refrigeration cycle. ! In a pump-type refill machine equipped with an i-position, by exchanging heat between the heat exchanger of the heating device and the water at the bottom of the hot water storage tank, it is possible to Since the temperature of the hot water at the upper part of the hot water storage tank can be prevented from decreasing, the defrost time can be shortened while the temperature of the hot water supplied from the hot water tap is always maintained at a high temperature, and the defrost time can be reduced to a desirable value in practical use.
第１図および第２図は本発明の実施例を示し、第１図は
冷暖房給温機に適用した場合の第１実施例を示す冷媒配
管系統図、第２図は第２実施例を示す冷媒配管系統図、
第３図および第４図は従来例を示す冷媒配管系統図であ
る。
−１２−
４・・・貯湯槽、５，５′・・・給湯用熱交換器、６・
・・循環通路、６ａ・・・流出口、６１）〜６ｄ・・・
流入口、８．８′・・・加熱装置、１６・・・切換弁。
特許出願人 ダイキン工業株式会着−１３−Fig. 1 and Fig. 2 show an embodiment of the present invention, Fig. 1 is a refrigerant piping system diagram showing the first embodiment when applied to an air-conditioning/heating heater, and Fig. 2 shows a second embodiment. Refrigerant piping system diagram,
3 and 4 are refrigerant piping system diagrams showing a conventional example. -12- 4...Hot water storage tank, 5,5'...Hot water supply heat exchanger, 6.
...Circulation passage, 6a...Outlet, 61) to 6d...
Inlet, 8.8'...Heating device, 16...Switching valve. Patent applicant: Daikin Industries, Ltd. -13-
Claims (3)
−る熱交換器（５）によって貯湯槽（４）の水を加熱す
るようにした加熱装置（８）を備えたピー１〜ポンプ式
給湯機において、上記加熱装置（８）の熱交換器（５）
と貯湯槽（７１）下部の水とを熱交換ざ１ｉるように構
成したことを特徴どＪ゛るピー１−ポンプ式給湯機。(1) Heat generation η by P1 to P2F type freezing cycle
In the P1-pump type water heater, the heat exchanger (5) of the heating device (8) is equipped with a heating device (8) that heats the water in the hot water tank (4) by the heat exchanger (5). 5)
This P1-pump type water heater is characterized in that it is configured to perform heat exchange between the water and the water at the bottom of the hot water storage tank (71).
ていて、貯湯槽（４）の水を上記熱交換器（５）に循環
させる循環通路（６）の流出口（６ａ）および流入口（
６１１＞が貯湯槽（４）下部に設けられている特許請求
の範囲第（１）項記載のピー１〜ポンプ式給瀾機。(2) The heat exchanger (5) is installed outside the hot water storage tank (4), and the outlet of the circulation passage (6) that circulates water from the hot water storage tank (4) to the heat exchanger (5). (6a) and inlet (
611> is provided at the lower part of the hot water storage tank (4).
れていて、該熱交換器（５）自体が貯湯槽（４）内下部
に配向されている特許請求の範囲一 １ − 第（１）項記載のヒートポンプ式給ン易機、。(3) The heat exchanger (5) is installed inside the hot water storage tank (4), and the heat exchanger (5) itself is oriented at the lower part of the hot water storage tank (4). 1-1 - The heat pump type refueling machine described in paragraph (1).
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP1199083A JPH061134B2 (en) | 1983-01-26 | 1983-01-26 | Heat pump water heater |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP1199083A JPH061134B2 (en) | 1983-01-26 | 1983-01-26 | Heat pump water heater |
Publications (2)
| Publication Number | Publication Date |
|---|---|
| JPS59137745A true JPS59137745A (en) | 1984-08-07 |
| JPH061134B2 JPH061134B2 (en) | 1994-01-05 |
Family
ID=11793019
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| JP1199083A Expired - Lifetime JPH061134B2 (en) | 1983-01-26 | 1983-01-26 | Heat pump water heater |
Country Status (1)
| Country | Link |
|---|---|
| JP (1) | JPH061134B2 (en) |
Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPS63118564A (en) * | 1986-11-05 | 1988-05-23 | Matsushita Electric Ind Co Ltd | Hot water supplier utilizing solar energy |
| JP2002098438A (en) * | 2000-07-19 | 2002-04-05 | Science Kk | Packaged air-conditioning apparatus |
| JP2010284460A (en) * | 2009-06-11 | 2010-12-24 | Tetsuya Saishu | Descending device |
Citations (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPS5556364U (en) * | 1978-10-12 | 1980-04-16 | ||
| JPS5784939A (en) * | 1980-11-17 | 1982-05-27 | Mitsubishi Electric Corp | Hot water feeding apparatus |
| JPS5784938A (en) * | 1980-11-17 | 1982-05-27 | Mitsubishi Electric Corp | Hot water feeding apparatus |
| JPS57134527U (en) * | 1981-02-16 | 1982-08-21 | ||
| JPS57201453U (en) * | 1981-06-18 | 1982-12-22 | ||
| JPS5946446A (en) * | 1982-09-10 | 1984-03-15 | Matsushita Electric Ind Co Ltd | Heat pump type water heater |
-
1983
- 1983-01-26 JP JP1199083A patent/JPH061134B2/en not_active Expired - Lifetime
Patent Citations (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPS5556364U (en) * | 1978-10-12 | 1980-04-16 | ||
| JPS5784939A (en) * | 1980-11-17 | 1982-05-27 | Mitsubishi Electric Corp | Hot water feeding apparatus |
| JPS5784938A (en) * | 1980-11-17 | 1982-05-27 | Mitsubishi Electric Corp | Hot water feeding apparatus |
| JPS57134527U (en) * | 1981-02-16 | 1982-08-21 | ||
| JPS57201453U (en) * | 1981-06-18 | 1982-12-22 | ||
| JPS5946446A (en) * | 1982-09-10 | 1984-03-15 | Matsushita Electric Ind Co Ltd | Heat pump type water heater |
Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPS63118564A (en) * | 1986-11-05 | 1988-05-23 | Matsushita Electric Ind Co Ltd | Hot water supplier utilizing solar energy |
| JP2002098438A (en) * | 2000-07-19 | 2002-04-05 | Science Kk | Packaged air-conditioning apparatus |
| JP2010284460A (en) * | 2009-06-11 | 2010-12-24 | Tetsuya Saishu | Descending device |
Also Published As
| Publication number | Publication date |
|---|---|
| JPH061134B2 (en) | 1994-01-05 |
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