TWM496734U - Air conditioner compressor device with integrated utilization of heat and mechanical dynamic energy - Google Patents

Air conditioner compressor device with integrated utilization of heat and mechanical dynamic energy Download PDF

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Publication number
TWM496734U
TWM496734U TW103214741U TW103214741U TWM496734U TW M496734 U TWM496734 U TW M496734U TW 103214741 U TW103214741 U TW 103214741U TW 103214741 U TW103214741 U TW 103214741U TW M496734 U TWM496734 U TW M496734U
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Taiwan
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energy
heat
compressor
evaporator
external
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TW103214741U
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Chinese (zh)
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Pang-Chia Chen
Hsu-Ming Chang
Kuan-Yu Hou
Chang-Han Wu
bao-ming Zhan
Shuai-Feng Lin
Henh-Vay Trang
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Univ Kao Yuan
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Priority to TW103214741U priority Critical patent/TWM496734U/en
Publication of TWM496734U publication Critical patent/TWM496734U/en

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Description

具有熱能與機械動能整合運用的空調壓縮機裝置Air conditioning compressor device with integrated thermal energy and mechanical kinetic energy

本創作係與空調壓縮機裝置有關,特別是指一種具有熱能與機械動能整合運用的空調壓縮機裝置。This creation is related to air conditioning compressor units, and in particular to an air conditioning compressor unit that combines thermal energy with mechanical kinetic energy.

傳統的具有壓縮機的空調系統中,壓縮機為主要的耗能組件,其工作為將低壓的汽態冷媒氣體加壓成為高壓高溫的汽態冷媒,因此,此種目前普遍使用的空調系統型態,亦被稱為汽體壓縮式(vapor compression)的空調系統,除了壓縮機以外,此型態的空調系統還包含有冷凝器,蒸發器,以及膨脹閥等組件,冷凝器藉由散熱風扇(或大型空調的散熱水塔)的作用,將來自壓縮機的高壓高溫汽態冷媒,予以冷卻降溫,而將冷氣系統循環中,冷媒所攜行的熱能予以排除於室外(或冷藏冷凍系統的櫃外),再者,膨脹閥將降溫後的汽態冷媒,作適當的流量調節,以降低汽態冷媒的壓力,使冷媒由於溫度與壓力的降低,而轉換成為液態冷媒。經過流量調節的液態冷媒,最終在位於室內的蒸發器,吸收熱能而再次成為低壓的氣體,並被送至壓縮機。因此,空調裝置外部能量主要為提供給壓縮機,低溫區域吸收熱能發生於蒸發器,而熱能被排出於高溫區域則發 生於冷凝器。In the conventional air conditioning system with a compressor, the compressor is the main energy consuming component, and its work is to pressurize the low pressure vaporous refrigerant gas into a high pressure and high temperature vapor refrigerant. Therefore, the currently widely used air conditioning system type State, also known as vapor compression air conditioning system, in addition to the compressor, this type of air conditioning system also includes a condenser, evaporator, and expansion valve components, the condenser through the cooling fan (or the cooling tower of a large air conditioner), the high-pressure high-temperature vapor refrigerant from the compressor is cooled and cooled, and the heat energy carried by the refrigerant is excluded from the outdoor (or the cabinet of the refrigeration and refrigeration system) in the circulation of the air-conditioning system. In addition, the expansion valve adjusts the temperature of the vaporized refrigerant after cooling to reduce the pressure of the vapor refrigerant, so that the refrigerant is converted into a liquid refrigerant due to the decrease of temperature and pressure. The flow-regulated liquid refrigerant finally absorbs heat energy in the evaporator located inside the chamber and becomes a low-pressure gas again, and is sent to the compressor. Therefore, the external energy of the air conditioner is mainly supplied to the compressor, and the heat energy absorbed in the low temperature region occurs in the evaporator, and the heat energy is discharged in the high temperature region. Born in the condenser.

藉此,如何開發出一種具有熱能與機械動能整合運用的空調壓縮機裝置,其能夠解決上述問題,即是本創作急欲解決的問題,亦是本創作的研發動機。In this way, how to develop an air-conditioning compressor device that integrates thermal energy and mechanical kinetic energy, which can solve the above problems, is an urgent problem to be solved by this creation, and is also an experimental engine of the present invention.

本創作之目的係解決上述傳統的具有壓縮機的空調系統,空調系統的性能係數(coefficient of performance,COP),可以定義為在低溫區域所移除的熱能,對所須要投入外部能量的比值,亦即COP=在低溫區域所移除的熱能/對所須要投入外部能量,可以提高在低溫區域所移除的熱能,而且降低對所須要投入外部能量,來提升傳統空調系統的效率。The purpose of this creation is to solve the above-mentioned conventional air conditioning system with a compressor. The coefficient of performance (COP) of the air conditioning system can be defined as the ratio of the thermal energy removed in the low temperature region to the external energy required. That is, COP = heat energy removed in the low temperature region / the external energy required to be applied, can improve the heat energy removed in the low temperature region, and reduce the external energy required to improve the efficiency of the conventional air conditioning system.

緣是,為了達成前述目的,依據本創作所提供之一種具有熱能與機械動能整合運用的空調壓縮機裝置,主要係包括冷凝器、膨脹閥、蒸發器、壓縮機、以及熱交換器所組成;熱交換器所須要的外部熱源,利用引擎冷卻水,或者太陽能熱水器,吸收了太陽光熱的熱水,以作為熱交換的外部熱源,因此為一種具有熱能與機械動能整合運用的空調壓縮機裝置,可用來提高空調器壓縮機的使用效率。The reason is that, in order to achieve the foregoing objective, an air conditioning compressor device with integrated thermal energy and mechanical kinetic energy provided by the present invention mainly comprises a condenser, an expansion valve, an evaporator, a compressor, and a heat exchanger; The external heat source required by the heat exchanger, using engine cooling water, or a solar water heater, absorbs the hot water of the solar heat as an external heat source for heat exchange, and thus is an air-conditioning compressor device that integrates thermal energy and mechanical kinetic energy. Can be used to improve the efficiency of the use of air conditioner compressors.

本創作之優點在於:The advantages of this creation are:

1.壓縮機具有熱能與動能的整合運用。1. The compressor has the integrated application of thermal energy and kinetic energy.

2.可以有效利用工作環境的外部,例如引擎冷卻水,或太陽能熱水器的熱水。2. Can effectively use the outside of the working environment, such as engine cooling water, or hot water from solar water heaters.

3.相較於傳統空調壓縮機,僅耗用較少的外部動能或電能。3. Compared to traditional air conditioner compressors, only less external kinetic energy or electrical energy is consumed.

10‧‧‧太陽能加熱板10‧‧‧Solar heating plate

20‧‧‧熱水儲存桶20‧‧‧ hot water storage tank

30‧‧‧熱交換器30‧‧‧ heat exchanger

40‧‧‧壓縮機40‧‧‧Compressor

50‧‧‧蒸發器50‧‧‧Evaporator

60‧‧‧膨脹閥60‧‧‧Expansion valve

70‧‧‧冷凝器70‧‧‧Condenser

90‧‧‧水流熱交換器90‧‧‧Water flow heat exchanger

110‧‧‧水流方向閥110‧‧‧Water flow direction valve

301‧‧‧外部熱能301‧‧‧External thermal energy

501‧‧‧低溫熱能501‧‧‧Low temperature heat

701‧‧‧高溫熱能701‧‧‧High temperature heat

800‧‧‧內燃機引擎800‧‧‧ internal combustion engine

801‧‧‧引擎冷卻水道檢修封蓋801‧‧‧Engine cooling waterway inspection cover

第1圖 係本創作之一種傳統空調壓縮機裝置示意圖Figure 1 is a schematic diagram of a conventional air conditioning compressor unit

第2圖 係本創作之一種具有熱能與機械動能整合運用的空調壓縮機裝置示意圖。Figure 2 is a schematic diagram of an air conditioning compressor unit with integrated thermal energy and mechanical kinetic energy.

第3圖 係本創作之一種具有熱能與機械動能整合運用的空調壓縮機裝置之熱能應用示意圖之一。Figure 3 is one of the schematic diagrams of the thermal energy application of an air conditioning compressor unit with integrated thermal energy and mechanical kinetic energy.

第4圖 係本創作之一種具有熱能與機械動能整合運用的空調壓縮機裝置之熱能應用示意圖之二。Figure 4 is a schematic diagram of the thermal energy application of an air conditioning compressor unit with integrated thermal energy and mechanical kinetic energy.

請參閱第1圖,其為本創作之一種傳統空調壓縮機裝置示意圖,由壓縮機(40)、蒸發器(50)、膨脹閥(60)與冷凝器(70)組成的空調裝置,蒸發器(50)與冷凝器(70)將低溫熱能(501)與高溫熱能(701)作熱能交換。Please refer to FIG. 1 , which is a schematic diagram of a conventional air conditioner compressor device, an air conditioner composed of a compressor (40), an evaporator (50), an expansion valve (60) and a condenser (70), and an evaporator. (50) and the condenser (70) exchange low temperature thermal energy (501) with high temperature thermal energy (701).

請參閱第2圖,其為本創作之一種具有熱能與機械動能整合運用的空調壓縮機裝置示意圖,由壓縮機(40)、蒸發器(50)、膨脹閥(60)、冷凝器(70)與熱交換器(30)所組成的空調裝置,蒸發器(50)與冷凝器(70)將低溫熱能(501)與高溫熱能(701)作熱能交換,汽態冷媒在進入壓縮機(40)前,利用熱交換器(30)將外部熱能(301)引進,以提升汽態冷媒的溫度或焓值,以降低壓縮機所須提升的汽態冷媒焓值差,達到減少外部動能或電能損耗的目的。Please refer to Fig. 2, which is a schematic diagram of an air conditioner compressor device with integrated thermal energy and mechanical kinetic energy, which is composed of a compressor (40), an evaporator (50), an expansion valve (60), and a condenser (70). The air conditioner composed of the heat exchanger (30), the evaporator (50) and the condenser (70) exchange heat energy of the low temperature heat energy (501) with the high temperature heat energy (701), and the vapor state refrigerant enters the compressor ( 40) Before, the external heat energy (301) is introduced by the heat exchanger (30) to increase the temperature or enthalpy of the vapor refrigerant to reduce the enthalpy difference of the vapor refrigerant to be increased by the compressor, thereby reducing external kinetic energy or The purpose of power loss.

請參閱第3圖,其為本創作之一種具有熱能與機械動能整合 運用的空調壓縮機裝置之熱能應用示意圖之一,蒸發器(30)的汽態冷媒進入壓縮機(40)之前,先經過一個採用內燃機引擎(800),利用引擎冷卻水道檢修封蓋(801)連接引擎高溫冷卻水至熱交換器(30),作為外部熱能(301)以提升汽態冷媒的溫度與焓值。Please refer to Figure 3, which is a combination of thermal energy and mechanical kinetic energy. One of the schematic diagrams of the application of the thermal energy of the air-conditioning compressor device, before the vapor refrigerant of the evaporator (30) enters the compressor (40), passes through an engine (800), and uses the engine cooling water passage cover (801). The engine is connected to the high temperature cooling water to the heat exchanger (30) as external thermal energy (301) to increase the temperature and enthalpy of the vapor refrigerant.

請參閱第4圖,其為本創作之一種具有熱能與機械動能整合運用的空調壓縮機裝置之熱能應用示意圖之二,主要係包括冷凝器(50)、膨脹閥(60)、蒸發器(50)、壓縮機(40)、熱水儲存桶(20)、太陽能加熱板(10)、水流熱交換器(90)與水流方向閥(110),其中冷凝器(50)、膨脹閥(60)、蒸發器(50)與壓縮機(40)為基本設備;蒸發器(50)的汽態冷媒進入壓縮機(40)之前,先經過一個熱交換器(30),熱交換器(30)的外部熱源為採用來自於太陽能熱水器,經由太陽能板(10)加熱,儲存於熱水儲存桶(20)的熱水;熱水儲存桶(20)經水流方向閥(110)至蒸發器(50)與壓縮機(40)的水流熱交換器(90)做熱交換,用以提升汽態冷媒的溫度與焓值。Please refer to Fig. 4, which is a schematic diagram of the thermal energy application of an air-conditioning compressor device with integrated thermal energy and mechanical kinetic energy, mainly including a condenser (50), an expansion valve (60), and an evaporator (50). ), compressor (40), hot water storage tank (20), solar heating plate (10), water flow heat exchanger (90) and water flow direction valve (110), wherein condenser (50), expansion valve (60) The evaporator (50) and the compressor (40) are basic equipment; before the vapor refrigerant of the evaporator (50) enters the compressor (40), it passes through a heat exchanger (30), and the heat exchanger (30) The external heat source is hot water from a solar water heater heated by a solar panel (10) and stored in a hot water storage tank (20); the hot water storage tank (20) is passed through a water flow direction valve (110) to an evaporator (50) It exchanges heat with the water flow heat exchanger (90) of the compressor (40) to increase the temperature and enthalpy of the vapor refrigerant.

綜上所述,依上文所揭示之內容,本創作確可達到創作之預期目的,提供具有熱能與機械動能整合運用的空調壓縮機裝置,具產業上利用之價值,爰依法提出新型專利申請。In summary, according to the content disclosed above, this creation can achieve the intended purpose of creation, providing an air-conditioning compressor device with integrated use of thermal energy and mechanical kinetic energy, which has the value of industrial use, and proposes a new patent application according to law. .

30‧‧‧熱交換器30‧‧‧ heat exchanger

40‧‧‧壓縮機40‧‧‧Compressor

50‧‧‧蒸發器50‧‧‧Evaporator

60‧‧‧膨脹閥60‧‧‧Expansion valve

70‧‧‧冷凝器70‧‧‧Condenser

301‧‧‧外部熱能301‧‧‧External thermal energy

501‧‧‧低溫熱能501‧‧‧Low temperature heat

701‧‧‧高溫熱能701‧‧‧High temperature heat

Claims (1)

一種具有熱能與機械動能整合運用的空調壓縮機裝置,由壓縮機、蒸發器、膨脹閥、冷凝器與熱交換器所組成的空調裝置,蒸發器與冷凝器將低溫熱能與高溫熱能作熱能交換,汽態冷媒在進入壓縮機前,利用熱交換器將外部熱能,提升汽態冷媒的溫度與如焓值,外部熱源例如可以採用內燃機引擎冷卻水,或是採用太陽能熱水器吸收了太陽光熱的熱水,作為熱交換的外部熱源到熱水儲存桶,如此可以降低壓縮機所須提升的汽態冷媒焓值差,減少對於外部動能或電能的損耗,達到提升空調器能源使用效率的目的。An air conditioning compressor device with integrated thermal energy and mechanical kinetic energy, an air conditioning device composed of a compressor, an evaporator, an expansion valve, a condenser and a heat exchanger, and an evaporator and a condenser for low-temperature heat energy and high-temperature heat energy Heat exchange, before the refrigerant enters the compressor, the external heat energy is used to increase the temperature of the vapor refrigerant and the value of the refrigerant. For example, the external heat source can use the engine cooling water, or the solar water heater can absorb the solar heat. The hot water is used as an external heat source for heat exchange to the hot water storage tank. This can reduce the difference in the vapor pressure of the compressor to be increased, reduce the loss of external kinetic energy or electric energy, and achieve the purpose of improving the energy efficiency of the air conditioner. .
TW103214741U 2014-08-18 2014-08-18 Air conditioner compressor device with integrated utilization of heat and mechanical dynamic energy TWM496734U (en)

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI724302B (en) * 2018-04-26 2021-04-11 日商日立江森自控空調有限公司 Air-conditioning device

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI724302B (en) * 2018-04-26 2021-04-11 日商日立江森自控空調有限公司 Air-conditioning device

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