JPH02150677A - Cooling and heating device - Google Patents

Cooling and heating device

Info

Publication number
JPH02150677A
JPH02150677A JP63305726A JP30572688A JPH02150677A JP H02150677 A JPH02150677 A JP H02150677A JP 63305726 A JP63305726 A JP 63305726A JP 30572688 A JP30572688 A JP 30572688A JP H02150677 A JPH02150677 A JP H02150677A
Authority
JP
Japan
Prior art keywords
cooling
heating
water
heat source
heat
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
Application number
JP63305726A
Other languages
Japanese (ja)
Other versions
JP2695210B2 (en
Inventor
Mokichi Kurosawa
黒沢 茂吉
Seiichiro Fujimaki
藤巻 誠一郎
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.)
Tokyo Gas Co Ltd
Original Assignee
Tokyo Gas Co Ltd
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 Tokyo Gas Co Ltd filed Critical Tokyo Gas Co Ltd
Priority to JP63305726A priority Critical patent/JP2695210B2/en
Publication of JPH02150677A publication Critical patent/JPH02150677A/en
Application granted granted Critical
Publication of JP2695210B2 publication Critical patent/JP2695210B2/en
Anticipated expiration legal-status Critical
Expired - Fee Related legal-status Critical Current

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Classifications

    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02ATECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
    • Y02A30/00Adapting or protecting infrastructure or their operation
    • Y02A30/27Relating to heating, ventilation or air conditioning [HVAC] technologies
    • Y02A30/274Relating to heating, ventilation or air conditioning [HVAC] technologies using waste energy, e.g. from internal combustion engine

Landscapes

  • Central Heating Systems (AREA)

Abstract

PURPOSE:To reduce a power receiving capacity and miniaturize a power receiving facility by a method wherein a engine-driven power generating device, a proper number of motor- driven heat pump units using water heat source, a cooling device and the like are combined while the heat pump unit and the like are operated by an electric power generated by the power generating device. CONSTITUTION:A power generating device 2 is operated by an engine 1 to generate an electric power, circulating pumps P1, P2 are operated to operate a cooling water circulating system A and a heat source water circulating system B and a water heat source heat pump unit (u) is operated to effect cooling and heating of respective rooms. Upon heating operation, high-temperature cooling water from the engine 1 flows into a heat exchanger 3 for heat source water for heating in the cooling water circulating system A to effect heat exchange between water and rise the temperature of the same while the cooling water for the engine 1 is cooled and returned to a cooling system (a). When the temperature of the cooling water is lower than a predetermined temperature, the cooling water is returned to the engine 1 through a bypass route (l1) but when the temperature of the same is higher than the predeter mined temperature, the temperature is reduced to a temperature lower than the predetermined temperature through a cooling device 4 and is recirculated into the engine 1. In the heat source water circulating system B, the temperature of the heat source water is risen by heat exchange in the heat exchanger 3.

Description

【発明の詳細な説明】 (産業上の利用分野) 本発明はビル等に於ける冷暖房装置に関するものである
DETAILED DESCRIPTION OF THE INVENTION (Industrial Field of Application) The present invention relates to a heating and cooling system for buildings and the like.

(従来の技術) ビル等に於ける従来の冷暖房装置として、各部屋等毎に
設置した小型の電動水熱源ヒートポンプを1回路の共通
水配管で熱源と循環可能に接続し、該熱源は夏季に冷却
塔側、冬期にボイラ側へと切換可能として構成したもの
が利用されている。この装置では各部屋等に於ける電動
水熱源ヒートポンプ毎に冷房、暖房運転及び運転停止を
行え、個別分散冷暖房を良好に行うことができる。
(Prior art) As a conventional air-conditioning system in buildings, etc., a small electric water heat source heat pump installed in each room is connected to the heat source through one circuit of common water piping so that it can circulate, and the heat source is used in the summer. A configuration is used that allows switching between the cooling tower side and the boiler side in winter. With this device, cooling, heating operation, and operation stop can be performed for each electric water source heat pump in each room, etc., and individual distributed cooling and heating can be performed satisfactorily.

(発明が解決しようとする課題) しかしながら、かかる装置では小型の電動ヒートポンプ
を多数用いるため、他の受電負荷と併せた全体の受電容
量、そして受電装置が大ぎなものとなると共に、部屋毎
の空調負荷で機器を選ぶため合計の機器容量も大ぎめに
なるという欠点があり、50Hz供給地域ではこの欠点
がより顕著である。更に、かかる装置では熱源として冷
却塔とボイラの両者が必須であるという欠点もある。
(Problem to be Solved by the Invention) However, since such devices use a large number of small electric heat pumps, the overall power receiving capacity combined with other power receiving loads and the power receiving device become large, and the air conditioning of each room becomes large. Since the equipment is selected based on the load, the total equipment capacity is also large, which is a drawback, and this drawback is more noticeable in areas where 50 Hz is supplied. Furthermore, such equipment has the disadvantage that both a cooling tower and a boiler are essential as heat sources.

本発明は以上の課題を解決することを目的とするもので
ある。
The present invention aims to solve the above problems.

(課題を解決するための手段) 本発明の構成を実施例に対応する図面の符号を参照して
説明すると、まず特許請求の範囲第1項記載の冷暖房装
置は、 エンジン1駆動の発電装置2と、該発電装置2で発生さ
せたミノjにより運転する適数の水熱源ヒートポンプユ
ニットu(ul、u2.u3.・・・)とを設け、前記
エンジン1の冷却水循環系統Aと前記水熱源ヒートポン
プユニットUの熱源水循環系統Bを構成すると共に、こ
れらの系統A、B間の暖房熱源水用熱交換器3を設け、
前記冷却水循環系統Aには冷却装@4と、そのバイパス
経路象1を備えた冷却系統aを構成すると共に、前記熱
源水循環系統Bには前記暖房熱源水用熱交換器3を通る
加熱系統すと切換可能な、冷却装置5を備えた冷却系統
Cを設けた構成としている。
(Means for Solving the Problems) The configuration of the present invention will be explained with reference to the reference numerals in the drawings corresponding to the embodiments. First, the air conditioning system according to claim 1 includes: an engine 1 driven power generator 2; and an appropriate number of water heat source heat pump units u (ul, u2, u3, . . . ) operated by the mino j generated by the power generation device 2, and the cooling water circulation system A of the engine 1 and the water heat source A heat source water circulation system B of the heat pump unit U is configured, and a heat exchanger 3 for heating heat source water between these systems A and B is provided,
The cooling water circulation system A includes a cooling system @ 4 and a cooling system a including its bypass path image 1, and the heat source water circulation system B includes a heating system that passes through the heating heat source water heat exchanger 3. The configuration includes a cooling system C equipped with a cooling device 5 that can be switched between the two.

また本発明の他の構成として、第2項記載の冷暖房装置
は、 エンジン1駆動の発電装置2と、該発電装置2で発生さ
せた電力により運転する適数の水熱源ヒートポンプユニ
ットu(ul、 u2.u3.・・・)と、給湯装置6
とを設け、前記エンジン1の冷却水循環系統Aと前記水
熱源ヒートポンプユニットUの熱源水循環系統Bと前記
給湯装置6への給水系統Cを構成すると共に、前記冷却
水循環系統Aに夫々前記熱源水循環系統B、給水系統C
の水と熱交換する暖房熱源水用、熱回収用熱交換器3゜
7と、これらの熱交換器3,7の下流側に、冷却装置4
とそのバイパス経路11を備えた冷却系統aを構成し、
また前記熱源水循環系統Bには、前記暖房用熱交換器3
を通る加熱系統すと切換可能な、冷却装置5を備えた冷
却系統Cを設けた構成としている。
Further, as another configuration of the present invention, the air-conditioning/heating device according to item 2 includes a power generation device 2 driven by an engine 1, and an appropriate number of water heat source heat pump units u (ul, u2.u3....) and the water heater 6
and constitute a cooling water circulation system A for the engine 1, a heat source water circulation system B for the water heat source heat pump unit U, and a water supply system C for the hot water supply device 6. B. Water supply system C
A heating heat source water and heat recovery heat exchanger 3゜7 that exchanges heat with the water of
and a cooling system a including a bypass path 11 thereof,
The heat source water circulation system B also includes the heating heat exchanger 3.
The configuration is such that a cooling system C equipped with a cooling device 5 is provided, which can be switched between the heating systems passing through the cooling system.

次に、第3項記載の冷暖房装置は、前記第1項または第
2項記載の冷暖房装置に於いて、発電装置2は50 H
z/ 60 Hz切換可能としている。
Next, in the heating and cooling device described in item 3, in the heating and cooling device described in item 1 or 2, the power generation device 2 is 50 H.
z/60 Hz switchable.

次に、第4項記載の冷暖房装置は、前記第1項記載の冷
暖房装置に於いて、冷却水循環系統Aには、前記暖房熱
源水用熱交換器3及び冷却装置4をバイパス可能な冷却
水バイパス経路A2を構成している。
Next, in the heating and cooling apparatus described in item 4, in the heating and cooling apparatus described in item 1, the cooling water circulation system A includes cooling water that can bypass the heating heat source water heat exchanger 3 and the cooling device 4. It constitutes a bypass route A2.

次に第5項記載の冷暖房装置は、前記第2項記載の冷暖
房装置に於いて、冷却水循環系統へには、前記暖房熱源
水田、熱回収用熱交換器3,7及び冷却装置4をバイパ
ス可能な冷却水バイパス経路12を構成している。
Next, in the air conditioning system described in item 5, in the air conditioning system described in item 2, the heating heat source paddy field, the heat recovery heat exchangers 3 and 7, and the cooling device 4 are bypassed to the cooling water circulation system. A possible cooling water bypass path 12 is configured.

次に、第6項記載の冷暖房装置は、第1項または第2項
記載の冷暖房装置に於いて、熱源水循環系統Bの加熱、
冷却系統す、cには、夫々前記暖房熱源水田熱交換器3
、冷却装置5をバイパス可能な加熱、冷却バイパス経路
A3.j)3’を構成している。
Next, the heating and cooling device described in item 6 is the heating and cooling device described in item 1 or 2, in which heating of the heat source water circulation system B,
The cooling systems A and C include the heating heat source paddy heat exchanger 3, respectively.
, a heating/cooling bypass path A3 that can bypass the cooling device 5. j) Consists of 3'.

次に第7項記載の冷暖房装置は、 第6項記載の冷暖房装置に於いて、加熱、冷却バイパス
経路J3.J!a’ は冷却、加熱系統C1bの一部に
より構成している。
Next, in the heating and cooling device described in item 7, in the heating and cooling device described in item 6, heating and cooling bypass path J3. J! a' is constituted by a part of the cooling and heating system C1b.

次に第8項記載の冷暖房装置は、 第2項記載の冷暖房装置に於いて、給湯装置6への給水
系統Cに、熱回収用熱交換器7をバイパスするバイパス
経路f!4を構成している。
Next, in the heating and cooling device described in Item 8, in the heating and cooling device described in Item 2, a bypass path f! that bypasses the heat recovery heat exchanger 7 is provided to the water supply system C to the hot water supply device 6! 4.

次に、第9項記載の冷暖房装置は、 第1項または第2項記載の冷暖房装置に於いて、冷却装
置4.5はエンジン1駆動の発電装置2の電力により運
転する冷却塔としている。
Next, in the air-conditioning system described in item 9, in the air-conditioning system described in item 1 or 2, the cooling device 4.5 is a cooling tower operated by electric power from the power generator 2 driven by the engine 1.

次に、第10項記載の冷暖房装置は、 第1項または第2項記載の冷暖房装置に於いて、冷却水
循環系統A及び熱源水循環系統Bには、エンジン1駆動
の発電装置2の電力により運転する循環ポンプP1.P
2を設けている。
Next, in the air conditioning system described in item 10, in the air conditioning system described in item 1 or 2, the cooling water circulation system A and the heat source water circulation system B are operated by the electric power of the power generation device 2 driven by the engine 1. Circulation pump P1. P
2 are provided.

(作用及び実施例) 以上の本発明の作用を、図面に示した実施例の構成に基
づいて説明する。尚、図示の実施例に於いては、熱源水
循環系統Bに於ける加熱系統すと冷却系統Cとの切換動
作及び各バイパス経路111!2.J3.J13’ 、
j24の動作は、三方弁V1゜V2 、V3 、Va 
、V5により行う構成としている。
(Operations and Examples) The operations of the present invention described above will be explained based on the configuration of the embodiments shown in the drawings. In the illustrated embodiment, the switching operation between the heating system and the cooling system C in the heat source water circulation system B and each bypass path 111!2. J3. J13',
The operation of j24 is three-way valve V1゜V2, V3, Va
, V5.

以上の構成に於いて、エンジン1により発電装置2を動
作させて電力を発生させ、かかる電力により循環ポンプ
P1.P2を運転して冷却水循環系統A、熱源水循環系
統Bを動作さゼると共に、該電力により水熱源ヒートポ
ンプユニットU(ul、u2.LJ3.u4.・・・)
を運転して各部屋の冷暖房を行うことができる。
In the above configuration, the engine 1 operates the power generator 2 to generate electric power, and the generated electric power is used to generate the circulation pump P1. P2 is operated to operate the cooling water circulation system A and the heat source water circulation system B, and the electric power is used to operate the water heat source heat pump unit U (ul, u2.LJ3.u4...)
can be operated to heat and cool each room.

[I]暖房運転 まず、暖房時には、冷却水循環系統Aに於いて、エンジ
ン1からの高温冷却水は暖房熱源水用熱交換器3に至り
、熱源水循環系統Bの水と熱交換して、これを昇温する
と共に、自体は温度が低下して熱回収用熱交換器7に至
る。モして該熱交換器7に於いて給水系統Cの水と熱交
換1ノで、これを昇温すると共に、自体は更に温度が低
下して冷却系統aに至る。この際、冷却水の温度が所定
温度(例えば75℃)以下の場合には、三方弁V3は第
2図(a)にハツチングで示したポート間を連通状態と
し、こうして冷却水は冷却装置4をバイパスし、バイパ
ス経路A1を経てエンジン1に還流する。また熱交換器
3,7を経ても冷却水の温度が前記所定温度以上である
場合には、三方弁V3は、第2図(b)にハツチングで
示したポート間を連通状態とし、こうして冷却水は冷却
装置4を経て所定温度以下としてエンジン1に還流する
[I] Heating operation First, during heating, in the cooling water circulation system A, the high temperature cooling water from the engine 1 reaches the heating heat source water heat exchanger 3, where it exchanges heat with the water in the heat source water circulation system B. At the same time, the temperature of the heat source itself decreases and reaches the heat recovery heat exchanger 7. Then, in the heat exchanger 7, the water in the water supply system C undergoes heat exchange 1 to raise its temperature, and the temperature of the water itself further decreases to reach the cooling system A. At this time, if the temperature of the cooling water is below a predetermined temperature (for example, 75°C), the three-way valve V3 connects the ports shown by hatching in FIG. is bypassed and recirculated to the engine 1 via the bypass route A1. If the temperature of the cooling water remains above the predetermined temperature even after passing through the heat exchangers 3 and 7, the three-way valve V3 connects the ports indicated by hatching in FIG. 2(b), thereby cooling the water. The water passes through the cooling device 4 and returns to the engine 1 at a temperature below a predetermined temperature.

一方、熱源水循環系統Bに於いては、三方弁V1.V2
は夫々第2図(C)にハツチングで示したポート間を連
通状態として、前記熱交換器3を通る熱源水の循環が行
われ、該熱交換器3に於ける熱交換により熱源水の昇温
が行われる。しかして、ヒートポンプユニットUを、前
記発電装置2に於いて発生する電力により動作させるこ
とにより、該ヒートポンプユニット(」は、熱源として
循環してくる熱源水から熱を奪って所定の暖房を行うこ
とができる。この際、ヒートポンプユニットUは、熱源
水が所定温度(例えば40℃)以上に上ったところで運
転することにより効率的な運転を行うことができる。ま
た、ヒートポンプユニット【」に於ける消費熱量が少な
いために熱源水の温度が次第に上昇してくる場合には、
その温度が所定温度(例えば45℃)以上となった場合
に、三方弁V2を第2図(d)にハツチングで示したボ
ート間を連通状態とし、熱源水を熱交換器3をバイパス
して、加熱バイパス経路f!3に流して熱交換器3に流
れる流量を少なくづることにより、所定温度以下への上
昇を防ぐことができる。
On the other hand, in the heat source water circulation system B, the three-way valve V1. V2
The heat source water is circulated through the heat exchanger 3 with the ports indicated by hatching in FIG. Warmth is done. By operating the heat pump unit U with the electric power generated in the power generation device 2, the heat pump unit U is able to remove heat from the heat source water that circulates as a heat source and perform the specified heating. In this case, the heat pump unit U can be operated efficiently by operating when the heat source water reaches a predetermined temperature (for example, 40 degrees Celsius) or higher. If the temperature of the heat source water gradually rises due to low heat consumption,
When the temperature reaches a predetermined temperature (for example, 45°C) or higher, the three-way valve V2 is placed in communication between the boats shown by hatching in FIG. 2(d), and the heat source water bypasses the heat exchanger 3. , heating bypass path f! By reducing the flow rate flowing into the heat exchanger 3 through the heat exchanger 3, it is possible to prevent the temperature from rising below a predetermined temperature.

一方、給水系統Cに於いては、三方弁■5を第2図(a
) 、(C)にハツチングで示したボート間を連通状態
とすることにより、給湯器6への補給水を熱交換器7に
於いて余熱すると同時に冷却水循環系統Aの冷却水の温
度を低下させることができる。また三方弁V5を第2図
(b)にハツチングで示したボート間を連通状態として
、前記補給水を熱交換器7のバイパス経路f!4に通す
ことにより、冷却水の必要以上の温度低下を防止するこ
とができる。
On the other hand, in the water supply system C, the three-way valve ■5 is
), by establishing communication between the boats shown by hatching in (C), the make-up water to the water heater 6 is preheated in the heat exchanger 7, and at the same time the temperature of the cooling water in the cooling water circulation system A is lowered. be able to. In addition, the three-way valve V5 is placed in communication between the boats shown by hatching in FIG. 4, it is possible to prevent the temperature of the cooling water from dropping more than necessary.

尚、前記冷却水循環系統Aに於いて、エンジン1の起動
時に於いては、三方弁■4を第2図([)にハツチング
で示したボート間を連通状態として、冷却水を、暖房熱
源水用、熱回収用熱交換器3゜7及び冷却装置4をバイ
パスして冷却水バイパス経路12に流すようにすれば、
循環冷却水を短時間で所定温度(例えば75°C)以上
に昇温づることができ、しかる後該三方弁V4を第2図
(a)、(b)にハツチングで示したボート間を連通状
態とすることにより、前述した所定の運転を即座に行う
ことができる。
In the cooling water circulation system A, when the engine 1 is started, the three-way valve ■4 is placed in communication between the boats indicated by hatching in FIG. By bypassing the heat exchanger 3.7 for heat recovery and the cooling device 4 and flowing the cooling water into the bypass path 12,
The circulating cooling water can be heated to a predetermined temperature (for example, 75°C) or higher in a short time, and then the three-way valve V4 is connected to the boats shown by hatching in Fig. 2 (a) and (b). By setting it in this state, the above-mentioned predetermined operation can be performed immediately.

[n]冷房運転 次に冷房時には、冷却水循環系統A及び給水系統Cは前
述した暖房時と同様に動作させると共に、熱源水循環系
統Bに於いては、三方弁V1.V2は夫々第2図(e)
にハツチングで示したボート間を連通状態として、前記
熱交換器3を通らずに冷却装置5を通る熱源水の循環が
行われ、温度を低下させた熱源水をヒートポンプユニッ
トUに送ることかできる。しかして該ヒートポンプユニ
ットUは循環してくる熱源水を冷却水として利用し所定
の冷房を行うことができる。ヒートポンプユニットUに
於ける冷房負荷が小さく、熱源水の温度が所定温度(例
えば32℃)よりも低くなってきた場合には、三方弁V
1を第2図(d)と同様にハツチングで示したボート間
を連通状態とし、熱源水を、冷却装置5をバイパスさせ
てバイパス経路13′を経て循環させることにより、所
定温度以下への下降を防ぐことができる。
[n] Cooling operation During the next cooling operation, the cooling water circulation system A and the water supply system C are operated in the same manner as during heating described above, and in the heat source water circulation system B, the three-way valve V1. V2 is shown in Figure 2(e).
With the boats indicated by hatching in Figure 1 in communication with each other, the heat source water is circulated through the cooling device 5 without passing through the heat exchanger 3, and the heat source water whose temperature has been lowered can be sent to the heat pump unit U. . Thus, the heat pump unit U can perform predetermined cooling by using the circulating heat source water as cooling water. When the cooling load on the heat pump unit U is small and the temperature of the heat source water becomes lower than a predetermined temperature (for example, 32°C), the three-way valve V
1 is connected to the boats indicated by hatching in the same manner as in FIG. 2(d), and the heat source water is circulated through the bypass path 13' bypassing the cooling device 5, thereby lowering the temperature to a predetermined temperature or lower. can be prevented.

以上の冷暖房運転に於いて、発電装置2は、通常は5Q
Hzの電力を発生させてヒートポンプユニットU及び冷
却塔等の冷却装置4,5、循環ポンプP+ 、P2等を
運転する。
In the above heating and cooling operation, the power generation device 2 normally operates at 5Q.
Hz power is generated to operate the heat pump unit U, cooling devices 4, 5 such as cooling towers, circulation pumps P+, P2, etc.

しかして、冷暖房負荷が大きくなって、50Hz運転で
は全体としての冷暖房能力が不足する時には、60Hz
に切換えて運転することにより該冷暖房能力を容易に上
昇することができ、以って所定の冷暖房を行うことがで
きる。冷暖房負荷の不足は、例えばルームザーモ等で室
温を検出し、50Hzに於ける最大能力運転にもかかわ
らず所定の室温に上昇(または下降)しない状態として
検出することができるが、この他通貨の方法を適用する
ことができる。このように1ノで、本発明に於いては、
電動水熱源ヒートポンプユニットU等の各電動機器を、
50Hz供給地域に於いても60Hzに於ける能力を最
大能力として選定を行うことができる。
However, when the heating and cooling load becomes large and the overall cooling and heating capacity is insufficient with 50Hz operation, 60Hz
By switching to and operating the system, the cooling/heating capacity can be easily increased, and thus predetermined heating/cooling can be performed. Insufficient cooling/heating load can be detected, for example, by detecting the room temperature using a room thermometer, etc., and detecting that the room temperature does not rise (or fall) to a predetermined level despite operating at maximum capacity at 50 Hz. can be applied. In this way, in No. 1, in the present invention,
Each electric equipment such as electric water heat source heat pump unit U,
Even in a 50Hz supply area, selection can be made with the capacity at 60Hz as the maximum capacity.

尚、以上に説明した実施例に於いては、給湯器@6を構
成要素とし、該給湯装置6への給水系統Cを構成すると
共に、該給水系統Cと冷却水循環系統A間で熱交換する
熱交換器7を設けることにより、冷房時に発生する熱量
並びに暖房時の余剰熱量を、該給湯装置6への補給水の
昇温として回収しているが、かかる熱量の回収は他の適
宜の方法で行うこともできるし、場合によっては回収を
省略する構成としても良い。また、前記エンジンは都市
ガスを燃料とする、いわゆるガスエンジン等、適宜のエ
ンジンを用いることができる。尚、図中符号8.9は夫
々吸気、排気用ブロワ−10はビルを示すものである。
In the embodiment described above, the water heater @6 is used as a component, and constitutes a water supply system C to the water heater 6, and heat exchanges between the water supply system C and the cooling water circulation system A. By providing the heat exchanger 7, the amount of heat generated during cooling and the amount of surplus heat during heating are recovered as heating of make-up water to the hot water supply device 6, but such amount of heat can be recovered by other appropriate methods. Alternatively, depending on the case, the collection may be omitted. Further, as the engine, an appropriate engine such as a so-called gas engine that uses city gas as fuel can be used. In addition, the reference numerals 8 and 9 in the figure indicate the intake and exhaust blowers 10, respectively.

(発明の効果) 本発明は以上の通り、エンジン駆動の発電装置と適数の
電動水熱源ヒートポンプユニットと冷却装置等とを組み
合わせ、該ヒートポンプユニット等を該発電装置で発生
させた電力により運転するので、ビル等の、全体として
の受電容量、そして受電設備を小さくすることができる
と共に、前記エンジンの冷却排熱を暖房時に於けるヒー
トポンプユニットの熱源としているので、熱源水をボイ
ラにより作る必要もなく、熱を有効利用することができ
るという効果がある。特に、前記発電装置を、5011
z/ 60Hz切換可能な構成とすると、前記ヒートポ
ンプユニット等の各電動機器を、50Hz供給地域に於
いても、60Hzに於ける能力を最大能力として選定を
行えるので、5011z供給地域に於いては、これら電
動機器の駆動を供給電力で行う場合と比較して、より小
型の機器を選定することができ、設備費用を低減し得る
という効果がある。更に、前記エンジンの冷却排熱を給
湯装置への補給水の余熱に利用することにより、暖房時
に於ける余剰熱量の回収を行えると共に、冷房時に於け
る発生熱量の有効利用を計ることができ、全体として省
エネルギのシステムを構成し得るという効果がある。
(Effects of the Invention) As described above, the present invention combines an engine-driven power generation device, an appropriate number of electric water heat source heat pump units, a cooling device, etc., and operates the heat pump units, etc. with the electric power generated by the power generation device. Therefore, the overall power receiving capacity and power receiving equipment of buildings, etc. can be reduced, and since the cooling exhaust heat of the engine is used as the heat source for the heat pump unit during heating, there is no need to generate heat source water using a boiler. This has the effect that heat can be used effectively. In particular, the power generation device is
z / 60Hz switchable configuration, each electric device such as the heat pump unit can be selected with the maximum capacity at 60Hz even in a 50Hz supply area, so in a 5011Z supply area, Compared to the case where these electric devices are driven by supplied power, it is possible to select smaller devices and there is an effect that equipment costs can be reduced. Furthermore, by using the cooling exhaust heat of the engine as residual heat of make-up water to the hot water supply system, surplus heat during heating can be recovered, and the heat generated during cooling can be effectively used. This has the effect of configuring an energy-saving system as a whole.

【図面の簡単な説明】[Brief explanation of the drawing]

全図共、本発明の実施例に対応するもので、第1図は全
体構成を示す系統説明図、第2図(a)、(b) 、(
c) 、(d) 、(e) 、(f)は要部の動作を示
す系統説明図である。 符号A・・・冷却水循環系統、B・・・熱源水循環系統
、C・・・給水系統、 1・・・エンジン、2・・・発電装置、3・・・暖房熱
源水用熱交換器、4,5・・・冷却装置、6・・・給湯
装置、7・・・熱回収用熱交換器、8・・・吸気ブロワ
−19・・・排気ブロワ、10・・・ビル、 a・・・冷却系統、b・・・加熱系統、C・・・冷却系
統、!21.j!2.It3.It3’ 、j!a・・
・バイパス経路、Vl、V2 、V3 、Va 、Va
・・・三方弁。
All the figures correspond to the embodiments of the present invention; Fig. 1 is a system explanatory diagram showing the overall configuration, Fig. 2 (a), (b), (
c), (d), (e), and (f) are system explanatory diagrams showing operations of main parts. Code A: Cooling water circulation system, B: Heat source water circulation system, C: Water supply system, 1: Engine, 2: Power generation device, 3: Heat exchanger for heating heat source water, 4 , 5... Cooling device, 6... Hot water supply device, 7... Heat exchanger for heat recovery, 8... Intake blower 19... Exhaust blower, 10... Building, a... Cooling system, b... heating system, C... cooling system,! 21. j! 2. It3. It3', j! a...
・Bypass route, Vl, V2, V3, Va, Va
...Three-way valve.

Claims (10)

【特許請求の範囲】[Claims] (1)エンジン駆動の発電装置と、該発電装置で発生さ
せた電力により運転する適数の水熱源ヒートポンプユニ
ットとを設け、前記エンジンの冷却水循環系統と前記水
熱源ヒートポンプユニットの熱源水循環系統を構成する
と共に、これらの系統間の暖房熱源水用熱交換器を設け
、前記冷却水循環系統には冷却装置及びそのバイパス経
路を備えた冷却系統を構成すると共に、前記熱源水循環
系統には前記暖房熱源水用熱交換器を通る加熱系統と切
換可能な、冷却装置を備えた冷却系統を構成したことを
特徴とする冷暖房装置
(1) An engine-driven power generation device and an appropriate number of water heat source heat pump units operated by the electric power generated by the power generation device are provided, and a cooling water circulation system for the engine and a heat source water circulation system for the water heat source heat pump unit are configured. At the same time, a heat exchanger for the heating heat source water is provided between these systems, and the cooling water circulation system constitutes a cooling system including a cooling device and its bypass path, and the heat source water circulation system is configured to provide a cooling system for the heating heat source water. A heating and cooling system characterized by comprising a cooling system equipped with a cooling device that can be switched with a heating system that passes through a heat exchanger.
(2)エンジン駆動の発電装置と、該発電装置で発生さ
れた電力により運転する適数の水熱源ヒートポンプユニ
ットと、給湯装置とを設け、前記エンジンの冷却水循環
系統と前記水熱源ヒートポンプユニットの熱源水循環系
統と前記給湯装置への給水系統を構成すると共に、前記
冷却水循環系統に夫々前記熱源水循環系統、給水系統の
水と熱交換する暖房熱源水用、熱回収用熱交換器と、こ
れらの熱交換器の下流側に、冷却装置とそのバイパス経
路を備えた冷却系統を構成し、また前記熱源水循環系統
には、前記暖房用熱交換器を通る加熱系統と切換可能な
、冷却装置を備えた冷却系統を構成したことを特徴とす
る冷暖房装置
(2) An engine-driven power generation device, an appropriate number of water heat source heat pump units operated by the electric power generated by the power generation device, and a hot water supply device are provided, and a cooling water circulation system for the engine and a heat source for the water heat source heat pump unit are provided. A water circulation system and a water supply system to the hot water supply device are configured, and the cooling water circulation system includes the heat source water circulation system, a heating heat source water heat exchanger for exchanging heat with the water of the water supply system, a heat exchanger for heat recovery, and the heat exchanger for these heat sources. A cooling system including a cooling device and its bypass path is configured downstream of the exchanger, and the heat source water circulation system is equipped with a cooling device that can be switched to a heating system passing through the heating heat exchanger. A heating and cooling device characterized by having a cooling system configured.
(3)第1項または第2項記載の冷暖房装置に於いて、
発電装置は50Hz/60Hz切換可能としたことを特
徴とする冷暖房装置
(3) In the air-conditioning device described in paragraph 1 or 2,
A heating and cooling system characterized in that the power generation device can be switched between 50Hz and 60Hz.
(4)第1項記載の冷暖房装置に於いて、冷却水循環系
統には、前記暖房熱源水用熱交換器及び冷却装置をバイ
パス可能な冷却水バイパス経路を構成したことを特徴と
する冷暖房装置
(4) The air-conditioning and heating apparatus according to item 1, wherein the cooling water circulation system includes a cooling water bypass path that can bypass the heating heat source water heat exchanger and the cooling device.
(5)第2項記載の冷暖房装置に於いて、冷却水循環系
統には、前記暖房熱源水用、熱回収用熱交換器及び冷却
装置をバイパス可能な冷却水バイパス経路を構成したこ
とを特徴とする冷暖房装置
(5) In the air-conditioning device according to item 2, the cooling water circulation system is configured with a cooling water bypass path that can bypass the heating heat source water, the heat recovery heat exchanger, and the cooling device. heating and cooling equipment
(6)第1項または第2項記載の冷暖房装置に於いて、
熱源水循環系統の加熱、冷却系統には、夫々前記暖房熱
源水用熱交換器、冷却装置をバイパス可能な加熱、冷却
バイパス経路を構成したことを特徴とする冷暖房装置
(6) In the air conditioning system described in paragraph 1 or 2,
A heating and cooling system characterized in that the heating and cooling systems of the heat source water circulation system are provided with heating and cooling bypass paths that can bypass the heating heat source water heat exchanger and the cooling device, respectively.
(7)第6項記載の冷暖房装置に於いて、加熱、冷却バ
イパス経路は夫々冷却、加熱系統の一部により構成した
ことを特徴とする冷暖房装置
(7) The air-conditioning and heating system according to item 6, characterized in that the heating and cooling bypass paths are constituted by parts of the cooling and heating systems, respectively.
(8)第2項記載の冷暖房装置に於いて、給湯装置への
給水系統に、熱回収用熱交換器をバイパスするバイパス
経路を構成したことを特徴とする冷暖房装置
(8) The air-conditioning and heating device according to item 2, characterized in that the water supply system to the hot water supply device includes a bypass path that bypasses the heat recovery heat exchanger.
(9)第1項または第2項記載の冷暖房装置に於いて、
冷却装置はエンジン駆動の発電装置の電力により運転す
る冷却塔としたことを特徴とする冷暖房装置
(9) In the air-conditioning device described in paragraph 1 or 2,
A heating and cooling system characterized in that the cooling system is a cooling tower operated by electric power from an engine-driven power generator.
(10)第1項または第2項記載の冷暖房装置に於いて
、冷却水循環系統及び熱源水循環系統には、エンジン駆
動の発電装置の電力により運転する循環ポンプを設けて
いることを特徴とする冷暖房装置
(10) In the air-conditioning and heating system according to item 1 or 2, the cooling water circulation system and the heat source water circulation system are provided with a circulation pump operated by electric power from an engine-driven power generation device. Device
JP63305726A 1988-12-02 1988-12-02 Air conditioning Expired - Fee Related JP2695210B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP63305726A JP2695210B2 (en) 1988-12-02 1988-12-02 Air conditioning

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP63305726A JP2695210B2 (en) 1988-12-02 1988-12-02 Air conditioning

Publications (2)

Publication Number Publication Date
JPH02150677A true JPH02150677A (en) 1990-06-08
JP2695210B2 JP2695210B2 (en) 1997-12-24

Family

ID=17948606

Family Applications (1)

Application Number Title Priority Date Filing Date
JP63305726A Expired - Fee Related JP2695210B2 (en) 1988-12-02 1988-12-02 Air conditioning

Country Status (1)

Country Link
JP (1) JP2695210B2 (en)

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH0474263U (en) * 1990-11-01 1992-06-29
JP2007051835A (en) * 2005-08-19 2007-03-01 Sanki Eng Co Ltd Waste heat using system
JP2008057822A (en) * 2006-08-30 2008-03-13 Taisei Corp Air-conditioning system
JP2009252558A (en) * 2008-04-07 2009-10-29 Sumitomo Wiring Syst Ltd Connector
CN103629855A (en) * 2012-11-22 2014-03-12 摩尔动力(北京)技术股份有限公司 Waste-heat refrigerating system of internal combustion engine

Citations (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS5926565U (en) * 1982-08-11 1984-02-18 株式会社東芝 Heat recovery air conditioning system
JPS5932767A (en) * 1982-08-19 1984-02-22 三菱電機株式会社 Air-conditioning hot-water supply device
JPS6284271A (en) * 1985-10-08 1987-04-17 東京瓦斯株式会社 Engine drive type air-conditioning hot-water supply device

Patent Citations (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS5926565U (en) * 1982-08-11 1984-02-18 株式会社東芝 Heat recovery air conditioning system
JPS5932767A (en) * 1982-08-19 1984-02-22 三菱電機株式会社 Air-conditioning hot-water supply device
JPS6284271A (en) * 1985-10-08 1987-04-17 東京瓦斯株式会社 Engine drive type air-conditioning hot-water supply device

Cited By (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH0474263U (en) * 1990-11-01 1992-06-29
JP2007051835A (en) * 2005-08-19 2007-03-01 Sanki Eng Co Ltd Waste heat using system
JP2008057822A (en) * 2006-08-30 2008-03-13 Taisei Corp Air-conditioning system
JP2009252558A (en) * 2008-04-07 2009-10-29 Sumitomo Wiring Syst Ltd Connector
CN103629855A (en) * 2012-11-22 2014-03-12 摩尔动力(北京)技术股份有限公司 Waste-heat refrigerating system of internal combustion engine
CN103629855B (en) * 2012-11-22 2016-06-01 摩尔动力(北京)技术股份有限公司 Afterheat of IC engine refrigeration system

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