WO2007074733A1 - Air conditioner - Google Patents
Air conditioner Download PDFInfo
- Publication number
- WO2007074733A1 WO2007074733A1 PCT/JP2006/325619 JP2006325619W WO2007074733A1 WO 2007074733 A1 WO2007074733 A1 WO 2007074733A1 JP 2006325619 W JP2006325619 W JP 2006325619W WO 2007074733 A1 WO2007074733 A1 WO 2007074733A1
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- WO
- WIPO (PCT)
- Prior art keywords
- heat exchanger
- water
- indoor heat
- condensed water
- air conditioner
- Prior art date
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Classifications
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F1/00—Room units for air-conditioning, e.g. separate or self-contained units or units receiving primary air from a central station
- F24F1/0003—Room units for air-conditioning, e.g. separate or self-contained units or units receiving primary air from a central station characterised by a split arrangement, wherein parts of the air-conditioning system, e.g. evaporator and condenser, are in separately located units
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F1/00—Room units for air-conditioning, e.g. separate or self-contained units or units receiving primary air from a central station
- F24F1/06—Separate outdoor units, e.g. outdoor unit to be linked to a separate room comprising a compressor and a heat exchanger
- F24F1/26—Refrigerant piping
- F24F1/32—Refrigerant piping for connecting the separate outdoor units to indoor units
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F3/00—Air-conditioning systems in which conditioned primary air is supplied from one or more central stations to distributing units in the rooms or spaces where it may receive secondary treatment; Apparatus specially designed for such systems
- F24F3/12—Air-conditioning systems in which conditioned primary air is supplied from one or more central stations to distributing units in the rooms or spaces where it may receive secondary treatment; Apparatus specially designed for such systems characterised by the treatment of the air otherwise than by heating and cooling
- F24F3/14—Air-conditioning systems in which conditioned primary air is supplied from one or more central stations to distributing units in the rooms or spaces where it may receive secondary treatment; Apparatus specially designed for such systems characterised by the treatment of the air otherwise than by heating and cooling by humidification; by dehumidification
- F24F3/1411—Air-conditioning systems in which conditioned primary air is supplied from one or more central stations to distributing units in the rooms or spaces where it may receive secondary treatment; Apparatus specially designed for such systems characterised by the treatment of the air otherwise than by heating and cooling by humidification; by dehumidification by absorbing or adsorbing water, e.g. using an hygroscopic desiccant
- F24F3/1423—Air-conditioning systems in which conditioned primary air is supplied from one or more central stations to distributing units in the rooms or spaces where it may receive secondary treatment; Apparatus specially designed for such systems characterised by the treatment of the air otherwise than by heating and cooling by humidification; by dehumidification by absorbing or adsorbing water, e.g. using an hygroscopic desiccant with a moving bed of solid desiccants, e.g. a rotary wheel supporting solid desiccants
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F8/00—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying
- F24F8/10—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying by separation, e.g. by filtering
- F24F8/117—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying by separation, e.g. by filtering using wet filtering
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F8/00—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying
- F24F8/30—Treatment, e.g. purification, of air supplied to human living or working spaces otherwise than by heating, cooling, humidifying or drying by ionisation
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F2203/00—Devices or apparatus used for air treatment
- F24F2203/10—Rotary wheel
- F24F2203/1032—Desiccant wheel
-
- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F2203/00—Devices or apparatus used for air treatment
- F24F2203/10—Rotary wheel
- F24F2203/1056—Rotary wheel comprising a reheater
- F24F2203/106—Electrical reheater
-
- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F2203/00—Devices or apparatus used for air treatment
- F24F2203/10—Rotary wheel
- F24F2203/1068—Rotary wheel comprising one rotor
-
- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
- F24F2203/00—Devices or apparatus used for air treatment
- F24F2203/10—Rotary wheel
- F24F2203/1084—Rotary wheel comprising two flow rotor segments
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- Y—GENERAL 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
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02A—TECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
- Y02A50/00—TECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE in human health protection, e.g. against extreme weather
- Y02A50/20—Air quality improvement or preservation, e.g. vehicle emission control or emission reduction by using catalytic converters
Definitions
- the present invention relates to an air conditioner for removing dust adhering to an indoor heat exchanger.
- Patent Document 1 Japanese Patent Laid-Open No. 10-227477
- the conventional air conditioner does not generate condensed water in the indoor heat exchange during the heating operation, and therefore cannot clean the indoor heat exchange with the condensed water. As a result, the conventional air conditioner does not generate condensed water in the indoor heat exchange during the heating operation, and therefore cannot clean the indoor heat exchange with the condensed water. As a result, the conventional air conditioner does not generate condensed water in the indoor heat exchange during the heating operation, and therefore cannot clean the indoor heat exchange with the condensed water. As a result
- the present invention has been made in view of the strong point, and an object of the present invention is to clean an indoor heat exchanger even in a heating operation in which condensed water is not generated by indoor heat exchange. It is to make it possible.
- the present invention provides water supply means (60) for supplying cleaning water for removing dust adhering to the indoor heat exchanger (20) to the indoor heat exchanger (20). It was like that.
- the first invention provides an indoor unit (10) having an indoor heat exchanger (20) and an outdoor heat exchanger.
- the air conditioner includes an outdoor unit (50) having (51).
- the ionization means (25) is disposed upstream of the indoor heat exchanger (20) and charges the dust in order to electrically attach the dust in the inflowing air to the indoor heat exchanger (20).
- the external force of the indoor unit (10) is also provided with water supply means (60) for introducing cleaning water and supplying it to the indoor heat exchanger (20).
- the charged dust is electrically attached to the indoor heat exchanger (20), and the water supply means (60) It is removed by the washing water supplied in For this reason, even during the heating operation in which condensed water is not generated in the indoor heat exchanger (20), dust adhering to the indoor heat exchanger (20) is removed.
- the water supply means (60) supplies the condensed heat generated in the outdoor heat exchanger (51) as washing water to the indoor heat exchanger (20). It is configured to do this.
- the condensed water generated in the outdoor heat exchanger (51) is supplied as washing water to the indoor heat exchanger (20). For this reason, the condensed water generated in the outdoor heat exchanger (51) during the heating operation can be used as washing water.
- the outdoor unit (50) is provided with condensed water generating means (70) for condensing moisture in the outdoor air to generate condensed water.
- the water supply means (60) is configured to supply the condensed water generated by the condensed water generating means (70) as washing water to the indoor heat exchanger (20).
- the condensed water generated by condensing moisture in the outdoor air by the condensed water generating means (70) is supplied to the indoor heat exchanger (20) as washing water. For this reason, it is possible to stably obtain wash water regardless of air conditioning operation.
- the condensed water generating means (70) has a moisture absorbing member (71) that adsorbs moisture in outdoor air, and moisture adsorbed on the moisture absorbing member (71).
- moisture in the outdoor air is adsorbed by the moisture absorbing member (71), and moisture adsorbed on the moisture absorbing member (71) is desorbed by the heating means (72), and the condensation means (73) From the hygroscopic material (71)
- the desorbed water vapor is condensed to produce condensed water.
- the water supply means (60) includes a condensation generated in the outdoor heat exchanger (51) together with the condensed water generated in the condensed water generation means (70). Water is supplied to the indoor heat exchanger (20) as clean water.
- the condensed water generated in the outdoor heat exchanger (51) together with the condensed water generated in the condensed water generating means (70) is supplied to the indoor heat exchanger (20) as washing water. For this reason, a sufficient amount of water as washing water can be stably obtained.
- a sixth invention according to the first invention includes a storage tank (63) for storing the condensed water generated in the indoor heat exchanger (20).
- the water supply means (60) is configured to supply the condensed water stored in the storage tank (63) to the indoor heat exchanger (20) as washing water.
- the condensed water generated in the indoor heat exchanger (20) is stored in the storage tank (63), and the condensed water stored in the storage tank (63) is used as washing water for indoor heat exchange ( Supplied to 20). For this reason, the condensed water generated in the indoor heat exchange (20) can be reused as washing water.
- the indoor heat exchanger (20) generates condensed water generated in the indoor heat exchanger (20) during the cooling operation of the indoor unit (10).
- the dust adhering to the indoor heat exchanger (20) is removed.
- the water supply means (60) is configured to remove dust adhering to the indoor heat exchanger (20) by washing water during the heating operation of the indoor unit (10).
- the discharge means (30) for generating active species by discharge is disposed upstream of the indoor heat exchanger (20).
- the discharge means (30) is disposed upstream of the indoor heat exchange (20). For this reason, the indoor heat exchanger (20) is sterilized, and the mold grows in the indoor heat exchanger (20). It is advantageous in suppressing breeding.
- the discharge means (30) is configured to perform streamer discharge.
- streamer discharge is performed between the pair of electrodes.
- active species radicals, fast electrons, excited molecules, etc.
- the streamer discharge can form the active species generation region in a high density and in a wide range as compared with, for example, corona discharge or glow discharge. That is, the streamer discharge can generate a large amount of highly active active species compared to other discharges. Therefore, the decomposition efficiency of the component to be treated per unit installation space of the discharge means (30) can be improved.
- the ionization means (25) includes a discharge electrode (31) and a counter electrode (32) facing the discharge electrode (31).
- the discharge electrode (31) and the counter electrode (32) are arranged so as to discharge in a direction substantially perpendicular to the air flow direction.
- the discharge electrode (31) and the counter electrode (32) of the ionization means (25) are arranged so as to discharge in a direction substantially perpendicular to the air flow direction. For this reason, the dust in the inflowing air is reliably charged.
- An eleventh aspect of the invention is that in the tenth aspect, the discharge electrode (31) is formed in a linear shape and is disposed substantially parallel to the planar counter electrode (32).
- the linear discharge electrode (31) is disposed substantially parallel to the planar counter electrode (32). For this reason, discharge is performed over the entire air inflow surface, and dust in the inflow air is more reliably charged.
- the water supply means (60) includes a storage tank (63) for storing the wash water and a water transport pipe constituting the flow path of the wash water. (61) and a water transfer pump (62) for supplying the wash water stored in the storage tank (63) to the indoor heat exchanger (20) through the water transfer pipe (61)! /
- the wash water is stored in the storage tank (63), and the wash water in the storage tank (63) is transferred to the indoor heat exchanger (20 through the water transfer pipe (61) by the water transfer pump (62). ) It is.
- the water transport pipe (61) is configured such that the supply-side tip is formed in a nozzle shape, and the supply direction of the cleaning water is changeable. Yes.
- the supply-side tip of the water transfer pipe (61) is formed in a nozzle shape, while the supply direction of the wash water is changeable. For this reason, cleaning water is supplied over the entire surface of the indoor heat exchanger (20).
- the present invention when the dust in the inflowing air is charged by the ionization means (25), the charged dust is electrically attached to the indoor heat exchanger (20), and the water supply means (60) It is removed by the washing water supplied in For this reason, even during the heating operation in which condensed water is not generated in the indoor heat exchanger (20), dust adhering to the indoor heat exchanger (20) is removed, which is advantageous in ensuring air conditioning performance.
- the condensed water generated in the outdoor heat exchanger (51) is supplied to the indoor heat exchanger (20) as washing water, and the outdoor heat exchange is performed during the heating operation.
- the condensed water generated in the vessel (51) can be used as washing water.
- the condensed water generated by condensing moisture in the outdoor air by the condensed water generating means (70) is supplied to the indoor heat exchanger (20) as washing water, and is Condensed water can be obtained stably regardless of the operation.
- moisture in the outdoor air is adsorbed by the moisture absorbing member (71), and moisture adsorbed on the moisture absorbing member (71) is desorbed by the heating means (72), Since the water vapor desorbed from the hygroscopic member (71) is condensed by the condensing means (73), condensed water that can be used as washing water can be obtained.
- the condensed water generated in the outdoor heat exchange (51) together with the condensed water generated in the condensed water generating means (70) is used as washing water in the indoor heat exchange (20 ) And a sufficient amount of water as washing water can be stably obtained.
- the condensed water generated in the indoor heat exchanger (20) is stored in the storage tank (63), and the condensed water stored in the storage tank (63) is washed.
- Indoor heat exchange as water It is possible to reuse the condensed water supplied to the heat exchanger (20) and generated in the indoor heat exchanger (20) as washing water.
- the dust adhering to the indoor heat exchanger (20) is removed by the condensed water generated in the indoor heat exchanger (20) during the cooling operation, and during the heating operation Means water supply (
- the wash water introduced from the outside of the indoor unit (10) can be used without waste.
- the discharge means (30) is disposed upstream of the indoor heat exchanger (20), and the indoor heat exchanger (20) is sterilized.
- mold is advantageous in suppressing the growth of bacteria.
- the ninth aspect of the invention when air breakdown occurs due to streamer discharge, active species (radicals, fast electrons, excited molecules, etc.) are generated in the air, compared with other discharges. Highly active species can be produced in large quantities. Therefore, the decomposition efficiency of the component to be treated per unit installation space of the discharge means (30) can be improved.
- the linear discharge electrode (31) is disposed substantially parallel to the planar counter electrode (32), and discharge is performed over the entire air inflow surface. The dust in the incoming air is more reliably charged.
- the wash water is stored in the storage tank (63), and the indoor heat exchange from the storage tank (63) through the water transfer pipe (61) by the water transfer pump (62). Clean water is supplied to the vessel (20).
- the supply-side tip of the water transfer pipe (61) is formed in a nozzle shape, and the supply direction of the cleaning water can be changed. Can be supplied over the entire surface of the indoor heat exchanger (20).
- FIG. 1 is a schematic diagram showing a configuration of an air-conditioning apparatus according to Embodiment 1 of the present invention.
- FIG. 2 is a schematic diagram showing a configuration of an ion source unit according to the first embodiment.
- FIG. 3 is a schematic diagram showing the configuration of the water supply unit of the first embodiment.
- FIG. 4 is a schematic diagram showing a configuration of an air conditioner according to Embodiment 2.
- FIG. 5 is a schematic view showing a configuration of a condensed water generating unit according to the second embodiment.
- FIG. 6 is a schematic view showing a configuration of an air conditioner according to Embodiment 3.
- FIG. 7 is a schematic view showing a configuration of an air conditioner according to Embodiment 4.
- FIG. 1 is a schematic diagram showing a configuration of an air-conditioning apparatus according to Embodiment 1 of the present invention.
- the air conditioner (100) according to Embodiment 1 is attached to a side wall of an indoor space. It consists of a loose wall-mounted room air conditioner.
- the air conditioner (100) simultaneously performs air conditioning and cleaning of indoor air as processing air.
- the indoor unit (10) of the air conditioner (100) includes a casing (11) that is horizontally long and has a substantially rectangular parallelepiped shape.
- the casing (11) is formed with an inlet (12) and an outlet (13).
- the suction port (12) is an air inlet for taking indoor air into the casing (11), and is formed on the front side and the upper side of the casing (11), respectively.
- the air outlet (13) is an air supply port for supplying air treated by the indoor unit (10) from the inside of the casing (11) to the indoor space. It is formed so as to supply air obliquely downward.
- an air flow path (15) through which air to be treated flows is formed between the suction port (12) and the blowout port (13).
- an ionization unit (25), an indoor heat exchanger (20), and a fan (14) are arranged in order from the upstream side to the downstream side of the air flow.
- the ionizer unit (25) charges the dust in the air taken in from the suction port (12) by discharging, and the charged dust adheres to the surface of the indoor heat exchanger (20).
- the ionizer unit (25) includes a discharge electrode (31) serving as a base end of discharge and a counter electrode (32) facing the discharge electrode (31). Consists of.
- the discharge electrode (31) is formed in a linear shape or a rod shape, and extends in the left-right direction perpendicular to the air flow direction.
- the discharge electrode (31) is composed of a tungsten wire having a wire diameter of about 0.2 mm.
- the counter electrode (32) is formed in a plate shape or a planar shape, and is disposed substantially parallel to the discharge electrode (31). Thus, a plurality of discharge electrodes (31) and counter electrodes (32) are alternately arranged in the vertical direction.
- the ionization unit (25) includes a high-voltage DC power source (not shown).
- the positive electrode side of the DC power source is electrically connected to the discharge electrode (31).
- the negative electrode side (ground side) of the DC power supply is electrically connected to the counter electrode (32).
- Fig. 2 only the arrangement of the ionization unit (25) for discharging air flowing from the front side of the indoor unit (10) will be described, and the top surface of the indoor unit (10) will be described.
- the description of the arrangement of the ionizer unit (25) with respect to the air flowing in from the side is omitted, but the configuration is the same.
- the indoor heat exchanger (20) is connected to the outdoor unit (50), and constitutes a part of a refrigerant circuit in which the refrigerant circulates and performs a refrigeration cycle.
- This indoor heat exchange (20) constitutes a so-called fin-and-tube type air heat exchange ⁇ .
- the first heat exchanger (21) is arranged near the front surface of the air flow path (15) with its upper end inclined to the rear surface side.
- the second heat exchanger (22) is disposed near the rear surface of the air flow path (15) with its upper end inclined to the front side and in contact with the upper end of the first heat exchanger (21). Yes.
- a drain pan (23) for receiving condensed water generated in the first and second heat exchangers (21, 22) is provided below each of the first and second heat exchangers (21, 22). It has been.
- the drain pan (23) is connected with a drain pipe (24) for draining the collected condensed water to the outside!
- the fan (14) takes in indoor air into the casing (11) through the suction port (12) force casing by rotation, and the air treated by the indoor heat exchanger (20) from the outlet (13) to the indoor space. It is for supplying to
- the outdoor unit (50) of the air conditioner (100) includes an outdoor heat exchanger (51) and an outdoor unit fan (52).
- a drain pan (53) for receiving condensed water generated in the outdoor heat exchanger (51) is provided below the outdoor heat exchanger (51).
- the drain pan (53) is connected with a water supply unit (60) for supplying cleaning water to the indoor heat exchanger ( ⁇ ).
- the water supply unit (60) is configured to pass the condensed water generated in the water transfer pipe (61) and the outdoor heat exchanger (51), which form a flow path of the washing water, through the water transfer pipe (61). Wash in heat exchanger (20) It is equipped with a water transfer pump (62) that supplies water as water!
- the supply-side tip of the water transfer pipe (61) is formed in a nozzle shape, and is configured so that the supply direction of the wash water can be changed.
- the cleaning water from the nozzle cover can be sprayed like a shower, and the cleaning water can be supplied to the entire surface of the indoor heat exchanger (20).
- the supply direction of the wash water can be changed, it is advantageous to supply the wash water to the entire surface of the indoor heat exchanger (20) by various movements such as swinging the nozzle.
- the water supply unit (60) may include a storage tank (63) for temporarily storing condensed water. In this case, after a certain amount of condensed water has accumulated, the condensed water taken out from the storage tank (63) by the water transfer pump (62) is supplied to the indoor heat exchanger (20) as washing water.
- the fan (14) when the air conditioner (100) is in operation, the fan (14) is in an operating state.
- a DC voltage is applied to the ionization unit (25), and a discharge is performed in the ionization unit (25).
- low-pressure liquid refrigerant flows inside the indoor heat exchanger (20), and this indoor heat exchanger (20) functions as an evaporator.
- the air purified through the ionizer unit (25) circulates in the indoor heat exchanger (20).
- the heat of evaporation of the refrigerant is taken from the air, and the air to be treated is cooled.
- the air that has been cleaned and temperature-controlled as described above is discharged from the air outlet (13) into the room air. Supplied between.
- Condensed water is generated in the outdoor heat exchanger (51), and this condensed water is recovered by a drain pan (53) provided below the outdoor heat exchanger (51).
- the collected condensed water is supplied as washing water to the indoor heat exchanger (20) through the water transfer pipe (61) by the water transfer pump (62). Thereby, even during the heating operation, dust attached to the indoor heat exchanger (20) can be removed by the water supply unit (60).
- the air conditioner (100) of the first embodiment when the dust in the inflowing air is charged by the ionization unit (25), the charged dust is transferred to the indoor heat exchanger ( 20) and is removed by the washing water supplied by the water supply unit (60). For this reason, even during heating operation in which condensed water is not generated in the indoor heat exchanger (20), dust adhering to the indoor heat exchanger (20) is removed, which is advantageous in ensuring air conditioning performance.
- FIG. 4 is a schematic diagram showing the configuration of the air-conditioning apparatus according to Embodiment 2 of the present invention.
- the difference from the first embodiment is that a condensed water generation unit that condenses the moisture in the outdoor air to generate condensed water is provided, and therefore the same parts as those in the first embodiment are denoted by the same reference numerals hereinafter. Only the differences will be described.
- the outdoor unit (50) of the air conditioner (150) condenses moisture in the outdoor air in addition to the outdoor heat exchanger (51) and the outdoor unit fan (52). It is equipped with a condensate generation unit (70) that generates condensate!
- the condensed water generating unit (70) includes a moisture absorbing member (71) that adsorbs moisture in outdoor air, and a heating that desorbs moisture adsorbed on the moisture absorbing member (71).
- Moisture absorption member (71) force desorbed by heating part (72) and heating part (72)
- the water vapor transported to condensation unit (73) by air blowing and air blowing part (74) and moisture absorption member (71) force desorption And a condensing part (73) for generating condensed water by condensing the water vapor.
- a heating unit (72) is disposed below the desorption region of the moisture absorbing member (71), and moisture adsorbed by the moisture absorbing member (71) by the heating unit (72) is absorbed from the moisture absorbing member (71). Detach.
- a drain pan (54) for recovering the condensed water generated in the condensing unit (73) is provided below the condensed water generating unit (70).
- the drain pan (54) is connected to the water transfer pump (62) of the water supply unit (60), and the condensed water generated by the condensed water generation unit (70) is exchanged with the indoor heat through the water transfer pipe (61). (20) supplied as washing water.
- the condensed water generated in the outdoor heat exchanger (51) is used as the outdoor heat exchanger.
- a drain pan (53) may be provided below the outdoor heat exchanger (51), which is not limited to this form!
- FIG. 6 is a schematic diagram showing the configuration of the air-conditioning apparatus according to Embodiment 3 of the present invention.
- the difference from the second embodiment is that a discharge unit (30) that performs streamer discharge is provided upstream of the indoor heat exchanger (20). Only the differences will be described with the same reference numerals.
- Discharge unit (30) As shown in FIG. 6, in the air flow path (15) of the indoor unit (10) of the air conditioner (200), the air flow direction is more upstream than the indoor heat exchanger (20). Discharge unit (30) is provided . This discharge unit (30) performs streamer discharge in order to decompose a component to be treated in room air. When air breakdown occurs due to streamer discharge, active species (radicals, fast electrons, excited molecules, etc.) are generated in the air, and a large amount of highly active active species can be generated compared to other discharges. .
- the discharge unit (30) for performing the streamer discharge is arranged in the air flow path (15) of the air conditioner (200), it is more active than, for example, glow discharge or corona discharge. A large amount of seeds can be generated, and the decomposition performance of the component to be treated per unit installation space in the air conditioner (200) can be improved to obtain stable air purification efficiency.
- the air conditioner (200) when the dielectric breakdown of air occurs due to the streamer discharge of the discharge unit (30), the active species (radicals, High-speed electrons, excited molecules, etc.) are generated, and high-activity active species can be produced in a large amount compared to other discharges. As a result, sterilization of the indoor heat exchange (20) is performed, which is advantageous in suppressing the growth of bacteria in the indoor heat exchange (20).
- FIG. 7 is a schematic diagram showing the configuration of the air-conditioning apparatus according to Embodiment 4 of the present invention.
- the difference from the third embodiment is that the condensed water generated in the indoor heat exchange (20) is stored in the storage tank (63) and reused as cleaning water. Parts are denoted by the same reference numerals, and only the differences will be described.
- the condensed water in the outdoor heat exchanger (51) and the condensed water generation unit (70) is stored as it is in the storage tank (63), whereas the condensed water in the indoor heat exchanger (20).
- the drainage route is switched. [0093]
- the condensate storage operation of the indoor heat exchanger (20) will be described below.
- the condensed water generated in the indoor heat exchanger (20) is recovered by a drain pan (23), and is discharged into a drain pipe.
- the drain pipe (24) is branched into two in the middle of the pipe line, and the drain direction of the condensed water is switched based on the amount of washing water in the storage tank (63).
- the drain switching valve (64) provided at the branch point of the drain pipe (24) is a control signal output from the float switch (65) for measuring the water level in the storage tank (63). It is designed to switch based on. That is, when the water level in the storage tank (63) is lower than the specified value, it is determined that the amount of water in the storage tank (63) is insufficient, and the drain switching valve (64) is switched to Allow the condensate (20) to flow into the storage tank (63).
- the condensed water in the indoor heat exchanger (20) is filtered through the filtration filter (66) and then stored in the storage tank (63).
- a cleaning switching valve (67) is provided in the middle of the water conveyance pipe (61). This cleaning switching valve (67) supplies water that has been sucked up and raised from the storage tank (63) by the water transfer pump (62) to the indoor heat exchanger (20) side, or the indoor heat exchanger (20 ) From the filter cleaning direction that is opposite to the direction in which the condensed water passes through the filtration filter (66) so as to pass the cleaning water through the filtration filter (66).
- the condensed water discharged from the indoor heat exchanger (20) force contains dust adhering to the indoor heat exchanger (20), so the condensed water is stored in the storage tank (63).
- the force that removes dust with the filtration filter (66) in advance If left as it is, the filtration filter (66) may be clogged and the condensed water may not flow.
- the filtration filter (66) needs to be cleaned by detecting the force of detecting that a predetermined time has passed by the timer or the degree of contamination of the filtration filter (66) with a sensor or the like. If this happens, switch the cleaning switching valve (67) and use the water transfer pump (62) By cleaning the raised wash water by supplying side force in the filter cleaning direction of the filter (66)
- the dust adhering to the filter (66) is removed so as to maintain cleanliness.
- a plasma discharge unit (68) for supplying cleaning water is provided.
- the condensed water generated in (20) is stored in the storage tank (63), and the condensed water stored in the storage tank (63) is supplied to the indoor heat exchanger (20) as washing water. ) Can be reused as washing water.
- the present invention provides a highly practical effect that the indoor heat exchanger can be cleaned even during heating operation in which condensed water is not generated in the indoor heat exchanger. Therefore, it is extremely useful and has high industrial applicability.
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- Chemical & Material Sciences (AREA)
- Combustion & Propulsion (AREA)
- Mechanical Engineering (AREA)
- General Engineering & Computer Science (AREA)
- Air Filters, Heat-Exchange Apparatuses, And Housings Of Air-Conditioning Units (AREA)
- Devices For Blowing Cold Air, Devices For Blowing Warm Air, And Means For Preventing Water Condensation In Air Conditioning Units (AREA)
Abstract
Dust in the air is charged by an ionization unit (25), and the charged dust is adhered to an indoor heat exchanger (20). During the operation for cooling, dust is removed by condensed water generated in the indoor heat exchanger (20). On the other hand, during the operation for heating, condensed water generated in an outdoor heat exchanger (51) is supplied as washing water by a water supply unit (60) to the indoor heat exchanger (20) to remove dust.
Description
明 細 書 Specification
空気調和装置 Air conditioner
技術分野 Technical field
[0001] 本発明は、室内熱交換器に付着した塵埃を除去するための空気調和装置に関 するものである。 [0001] The present invention relates to an air conditioner for removing dust adhering to an indoor heat exchanger.
背景技術 Background art
[0002] 従来より、空気調和装置には、放電によって空気中の塵埃を荷電し、下流側にあ る室内熱交 を接地することにより、帯電した塵埃を室内熱交^^に付着させて 処理空気中から塵埃を除去するものがある。この空気調和装置は、付着した塵埃を 室内熱交換器で発生する凝縮水で洗 ヽ流すようにして ヽる(特許文献 1参照)。 特許文献 1:特開平 10— 227477号公報 Conventionally, an air conditioner is charged with dust in the air by discharge and grounded indoor heat exchange on the downstream side, so that the charged dust is attached to the indoor heat exchange and treated. Some remove dust from the air. In this air conditioner, the adhering dust is washed away with condensed water generated in the indoor heat exchanger (see Patent Document 1). Patent Document 1: Japanese Patent Laid-Open No. 10-227477
発明の開示 Disclosure of the invention
発明が解決しょうとする課題 Problems to be solved by the invention
[0003] し力しながら、従来の空気調和装置は、暖房運転時に室内熱交^^で凝縮水が 発生しないため、凝縮水による室内熱交^^の洗浄を行うことができない。この結果[0003] However, the conventional air conditioner does not generate condensed water in the indoor heat exchange during the heating operation, and therefore cannot clean the indoor heat exchange with the condensed water. As a result
、従来の空気調和装置は、室内熱交換器に塵埃が蓄積して空調性能や省エネルギ 性が損なわれるおそれがあった。 In the conventional air conditioner, there is a possibility that dust accumulates in the indoor heat exchanger and air conditioning performance and energy saving are impaired.
[0004] また、塵埃の中に存在するカビゃ細菌が増殖'飛散し、逆に処理空気を汚染して しまうというおそれがあつた。 [0004] In addition, there is a risk that molds present in the dust grow and scatter and conversely contaminate the processing air.
[0005] 本発明は、力かる点に鑑みてなされたものであり、その目的は、室内熱交^^で 凝縮水が発生しない暖房運転時においても、室内熱交換器の洗浄を行うことができ るようにすることにある。 [0005] The present invention has been made in view of the strong point, and an object of the present invention is to clean an indoor heat exchanger even in a heating operation in which condensed water is not generated by indoor heat exchange. It is to make it possible.
課題を解決するための手段 Means for solving the problem
[0006] 前記の目的を達成するため、本発明では、室内熱交換器 (20)に付着した塵埃を 除去する洗浄水を該室内熱交 (20)に供給する水供給手段 (60)を設けるように した。 [0006] In order to achieve the above object, the present invention provides water supply means (60) for supplying cleaning water for removing dust adhering to the indoor heat exchanger (20) to the indoor heat exchanger (20). It was like that.
[0007] すなわち、第 1の発明は、室内熱交換器 (20)を有する室内機(10)と、室外熱交
(51)を有する室外機 (50)とを備えた空気調和装置を対象としている。そして、前 記室内熱交換器 (20)の上流側に配設され、流入空気中の塵埃を前記室内熱交換 器 (20)に電気的に付着するために前記塵埃を帯電させるイオン化手段 (25)を備え ている。更に、前記室内機(10)の外部力も洗浄水を導入して前記室内熱交 (20 )に供給する水供給手段 (60)を備えて 、る。 That is, the first invention provides an indoor unit (10) having an indoor heat exchanger (20) and an outdoor heat exchanger. The air conditioner includes an outdoor unit (50) having (51). The ionization means (25) is disposed upstream of the indoor heat exchanger (20) and charges the dust in order to electrically attach the dust in the inflowing air to the indoor heat exchanger (20). ). Furthermore, the external force of the indoor unit (10) is also provided with water supply means (60) for introducing cleaning water and supplying it to the indoor heat exchanger (20).
[0008] 第 1の発明では、イオン化手段 (25)により流入空気中の塵埃を帯電させると、帯 電した塵埃が室内熱交換器 (20)に電気的に付着し、水供給手段 (60)で供給される 洗浄水により除去される。このため、室内熱交換器 (20)で凝縮水が発生しない暖房 運転時においても、室内熱交換器 (20)に付着した塵埃が除去される。 [0008] In the first invention, when the dust in the inflowing air is charged by the ionization means (25), the charged dust is electrically attached to the indoor heat exchanger (20), and the water supply means (60) It is removed by the washing water supplied in For this reason, even during the heating operation in which condensed water is not generated in the indoor heat exchanger (20), dust adhering to the indoor heat exchanger (20) is removed.
[0009] 第 2の発明は、第 1の発明において、前記水供給手段 (60)が、前記室外熱交換 器 (51)で発生した凝縮水を洗浄水として前記室内熱交 (20)に供給するように構 成されている。 [0009] In a second aspect based on the first aspect, the water supply means (60) supplies the condensed heat generated in the outdoor heat exchanger (51) as washing water to the indoor heat exchanger (20). It is configured to do this.
[0010] 第 2の発明では、室外熱交換器 (51)で発生した凝縮水が洗浄水として室内熱交 換器 (20)に供給される。このため、暖房運転中に室外熱交換器 (51)で発生した凝縮 水を洗浄水として利用できる。 [0010] In the second invention, the condensed water generated in the outdoor heat exchanger (51) is supplied as washing water to the indoor heat exchanger (20). For this reason, the condensed water generated in the outdoor heat exchanger (51) during the heating operation can be used as washing water.
[0011] 第 3の発明は、第 1の発明において、前記室外機 (50)には、室外空気中の水分を 凝縮させて凝縮水を生成する凝縮水生成手段 (70)が設けられている。そして、前記 水供給手段 (60)は、前記凝縮水生成手段 (70)で生成した凝縮水を洗浄水として前 記室内熱交 (20)に供給するように構成されている。 [0011] In a third aspect based on the first aspect, the outdoor unit (50) is provided with condensed water generating means (70) for condensing moisture in the outdoor air to generate condensed water. . The water supply means (60) is configured to supply the condensed water generated by the condensed water generating means (70) as washing water to the indoor heat exchanger (20).
[0012] 第 3の発明では、凝縮水生成手段 (70)により室外空気中の水分を凝縮させて生 成した凝縮水が洗浄水として室内熱交 (20)に供給される。このため、冷暖房運 転中にかかわらず洗浄水を安定的に得ることができる。 In the third invention, the condensed water generated by condensing moisture in the outdoor air by the condensed water generating means (70) is supplied to the indoor heat exchanger (20) as washing water. For this reason, it is possible to stably obtain wash water regardless of air conditioning operation.
[0013] 第 4の発明は、第 3の発明において、前記凝縮水生成手段 (70)が、室外空気中 の水分を吸着する吸湿部材 (71)と、該吸湿部材 (71)に吸着した水分を脱離させる 加熱手段 (72)と、該加熱手段 (72)で前記吸湿部材 (71)より脱離させた水蒸気を凝 縮させて凝縮水を生成する凝縮手段 (73)とを備えて!/ヽる。 [0013] In a fourth aspect based on the third aspect, the condensed water generating means (70) has a moisture absorbing member (71) that adsorbs moisture in outdoor air, and moisture adsorbed on the moisture absorbing member (71). A heating means (72) for desorbing water, and a condensing means (73) for condensing the water vapor desorbed from the hygroscopic member (71) by the heating means (72) to generate condensed water! / Speak.
[0014] 第 4の発明では、吸湿部材 (71)で室外空気中の水分が吸着され、加熱手段 (72) で吸湿部材 (71)に吸着された水分が脱離され、凝縮手段 (73)で吸湿部材 (71)から
脱離した水蒸気が凝縮されて凝縮水が生成される。 [0014] In the fourth invention, moisture in the outdoor air is adsorbed by the moisture absorbing member (71), and moisture adsorbed on the moisture absorbing member (71) is desorbed by the heating means (72), and the condensation means (73) From the hygroscopic material (71) The desorbed water vapor is condensed to produce condensed water.
[0015] 第 5の発明は、第 3の発明において、前記水供給手段 (60)が、前記凝縮水生成 手段 (70)で生成した凝縮水とともに前記室外熱交換器 (51)で発生した凝縮水を洗 浄水として前記室内熱交 (20)に供給するように構成されて 、る。 [0015] In a fifth aspect based on the third aspect, the water supply means (60) includes a condensation generated in the outdoor heat exchanger (51) together with the condensed water generated in the condensed water generation means (70). Water is supplied to the indoor heat exchanger (20) as clean water.
[0016] 第 5の発明では、凝縮水生成手段 (70)で生成された凝縮水とともに室外熱交換 器 (51)で発生した凝縮水が洗浄水として室内熱交 (20)に供給される。このため 、洗浄水として十分な水量を安定的に得ることができる。 [0016] In the fifth invention, the condensed water generated in the outdoor heat exchanger (51) together with the condensed water generated in the condensed water generating means (70) is supplied to the indoor heat exchanger (20) as washing water. For this reason, a sufficient amount of water as washing water can be stably obtained.
[0017] 第 6の発明は、第 1の発明において、前記室内熱交換器 (20)で発生した凝縮水 を保管する保管タンク (63)を備えている。そして、前記水供給手段 (60)は、前記保 管タンク (63)に保管された凝縮水を洗浄水として前記室内熱交 (20)に供給す るように構成されている。 [0017] A sixth invention according to the first invention includes a storage tank (63) for storing the condensed water generated in the indoor heat exchanger (20). The water supply means (60) is configured to supply the condensed water stored in the storage tank (63) to the indoor heat exchanger (20) as washing water.
[0018] 第 6の発明では、室内熱交換器 (20)で発生した凝縮水が保管タンク (63)に保管 され、保管タンク (63)に保管された凝縮水が洗浄水として室内熱交 (20)に供給 される。このため、室内熱交 (20)で発生した凝縮水を洗浄水として再利用するこ とがでさる。 [0018] In the sixth invention, the condensed water generated in the indoor heat exchanger (20) is stored in the storage tank (63), and the condensed water stored in the storage tank (63) is used as washing water for indoor heat exchange ( Supplied to 20). For this reason, the condensed water generated in the indoor heat exchange (20) can be reused as washing water.
[0019] 第 7の発明は、第 1の発明において、前記室内熱交換器 (20)が、前記室内機(10 )の冷房運転中に、該室内熱交換器 (20)で発生する凝縮水により該室内熱交換器( 20)に付着した塵埃を除去するように構成されている。一方、前記水供給手段 (60)は 、前記室内機(10)の暖房運転中に、洗浄水により前記室内熱交換器 (20)に付着し た塵埃を除去するように構成されて 、る。 [0019] In a seventh aspect based on the first aspect, the indoor heat exchanger (20) generates condensed water generated in the indoor heat exchanger (20) during the cooling operation of the indoor unit (10). Thus, the dust adhering to the indoor heat exchanger (20) is removed. On the other hand, the water supply means (60) is configured to remove dust adhering to the indoor heat exchanger (20) by washing water during the heating operation of the indoor unit (10).
[0020] 第 7の発明では、室内熱交換器 (20)に付着した塵埃が、冷房運転中は室内熱交 [0020] In the seventh invention, dust adhering to the indoor heat exchanger (20) is exchanged with the indoor heat exchanger during the cooling operation.
(20)で発生する凝縮水で除去され、暖房運転中は水供給手段 (60)から供給さ れる洗浄水で除去される。このため、室内機(10)外部から導入する洗浄水を無駄な く利用することができる。 It is removed by the condensed water generated in (20), and it is removed by the washing water supplied from the water supply means (60) during the heating operation. For this reason, the wash water introduced from the outside of the indoor unit (10) can be used without waste.
[0021] 第 8の発明は、第 1の発明において、前記室内熱交換器 (20)の上流側に、放電 により活性種を生成する放電手段 (30)が配設されて!/ヽる。 [0021] In an eighth aspect based on the first aspect, the discharge means (30) for generating active species by discharge is disposed upstream of the indoor heat exchanger (20).
[0022] 第 8の発明では、室内熱交 (20)の上流側に放電手段 (30)が配設される。こ のため、室内熱交換器 (20)の除菌が行われ、室内熱交換器 (20)でカビゃ細菌が繁
殖することを抑制する上で有利となる。 [0022] In the eighth invention, the discharge means (30) is disposed upstream of the indoor heat exchange (20). For this reason, the indoor heat exchanger (20) is sterilized, and the mold grows in the indoor heat exchanger (20). It is advantageous in suppressing breeding.
[0023] 第 9の発明は、第 8の発明において、前記放電手段 (30)が、ストリーマ放電を行う ように構成されている。 [0023] In a ninth aspect based on the eighth aspect, the discharge means (30) is configured to perform streamer discharge.
[0024] 第 9の発明では、一対の電極の間でストリーマ放電が行われる。このストリーマ放 電により空気の絶縁破壊が生じると、空気中で活性種 (ラジカル、高速電子、励起分 子等)が発生する。ここで、ストリーマ放電は、例えばコロナ放電やグロ一放電と比較 して活性種の発生領域を高密度且つ広範囲に形成することができる。すなわち、スト リーマ放電は、他の放電と比較して高活性の活性種を多量に生成することができる。 従って、放電手段 (30)の単位設置スペースあたりの被処理成分の分解効率を向上 できる。 In the ninth invention, streamer discharge is performed between the pair of electrodes. When air breakdown occurs due to this streamer discharge, active species (radicals, fast electrons, excited molecules, etc.) are generated in the air. Here, the streamer discharge can form the active species generation region in a high density and in a wide range as compared with, for example, corona discharge or glow discharge. That is, the streamer discharge can generate a large amount of highly active active species compared to other discharges. Therefore, the decomposition efficiency of the component to be treated per unit installation space of the discharge means (30) can be improved.
[0025] 第 10の発明は、第 1の発明において、前記イオン化手段 (25)が、放電極 (31)と 該放電極 (31)に対向する対向極 (32)とを備えている。そして、前記放電極 (31)及び 前記対向極 (32)は、空気流れ方向に略直交する方向に放電するように配置されて いる。 [0025] In a tenth aspect based on the first aspect, the ionization means (25) includes a discharge electrode (31) and a counter electrode (32) facing the discharge electrode (31). The discharge electrode (31) and the counter electrode (32) are arranged so as to discharge in a direction substantially perpendicular to the air flow direction.
[0026] 第 10の発明では、イオン化手段 (25)の放電極 (31)及び対向極 (32)が空気流れ 方向に略直交する方向に放電するように配設される。このため、流入空気中の塵埃 が確実に帯電される。 [0026] In the tenth invention, the discharge electrode (31) and the counter electrode (32) of the ionization means (25) are arranged so as to discharge in a direction substantially perpendicular to the air flow direction. For this reason, the dust in the inflowing air is reliably charged.
[0027] 第 11の発明は、第 10の発明において、前記放電極 (31)が、線状に形成されると ともに面状の前記対向極 (32)と略平行に配置されて 、る。 [0027] An eleventh aspect of the invention is that in the tenth aspect, the discharge electrode (31) is formed in a linear shape and is disposed substantially parallel to the planar counter electrode (32).
[0028] 第 11の発明では、線状の放電極 (31)が面状の対向極 (32)に略平行に配置され る。このため、空気流入面全体にわたって放電が行われ、より確実に流入空気中の 塵埃が帯電される。 [0028] In the eleventh aspect, the linear discharge electrode (31) is disposed substantially parallel to the planar counter electrode (32). For this reason, discharge is performed over the entire air inflow surface, and dust in the inflow air is more reliably charged.
[0029] 第 12の発明は、第 1の発明において、前記水供給手段 (60)が、前記洗浄水を保 管する保管タンク (63)と、前記洗浄水の流路を構成する水搬送配管 (61)と、前記保 管タンク (63)に保管された前記洗浄水を前記水搬送配管 (61)を通して前記室内熱 交換器 (20)に供給する水搬送ポンプ (62)とを備えて!/、る。 [0029] In a twelfth aspect based on the first aspect, the water supply means (60) includes a storage tank (63) for storing the wash water and a water transport pipe constituting the flow path of the wash water. (61) and a water transfer pump (62) for supplying the wash water stored in the storage tank (63) to the indoor heat exchanger (20) through the water transfer pipe (61)! /
[0030] 第 12の発明では、保管タンク (63)に洗浄水が保管され、水搬送ポンプ (62)により 水搬送配管 (61)を通して保管タンク (63)内の洗浄水が室内熱交 (20)に供給さ
れる。 [0030] In the twelfth invention, the wash water is stored in the storage tank (63), and the wash water in the storage tank (63) is transferred to the indoor heat exchanger (20 through the water transfer pipe (61) by the water transfer pump (62). ) It is.
[0031] 第 13の発明は、第 12の発明において、前記水搬送配管 (61)は、供給側先端部 がノズル形状に形成される一方、前記洗浄水の供給方向が変更可能に構成されて いる。 [0031] In a thirteenth aspect based on the twelfth aspect, the water transport pipe (61) is configured such that the supply-side tip is formed in a nozzle shape, and the supply direction of the cleaning water is changeable. Yes.
[0032] 第 13の発明では、水搬送配管 (61)の供給側先端部がノズル形状に形成される 一方、洗浄水の供給方向が変更可能に構成される。このため、洗浄水が室内熱交換 器 (20)の全面にわたって供給される。 [0032] In the thirteenth invention, the supply-side tip of the water transfer pipe (61) is formed in a nozzle shape, while the supply direction of the wash water is changeable. For this reason, cleaning water is supplied over the entire surface of the indoor heat exchanger (20).
発明の効果 The invention's effect
[0033] 本発明によれば、イオン化手段 (25)により流入空気中の塵埃を帯電させると、帯 電した塵埃が室内熱交換器 (20)に電気的に付着し、水供給手段 (60)で供給される 洗浄水により除去される。このため、室内熱交換器 (20)で凝縮水が発生しない暖房 運転時においても、室内熱交換器 (20)に付着した塵埃が除去され、空調性能を確 保する上で有利となる。 [0033] According to the present invention, when the dust in the inflowing air is charged by the ionization means (25), the charged dust is electrically attached to the indoor heat exchanger (20), and the water supply means (60) It is removed by the washing water supplied in For this reason, even during the heating operation in which condensed water is not generated in the indoor heat exchanger (20), dust adhering to the indoor heat exchanger (20) is removed, which is advantageous in ensuring air conditioning performance.
[0034] また、前記第 2の発明によれば、室外熱交換器 (51)で発生した凝縮水が洗浄水と して室内熱交換器 (20)に供給され、暖房運転中に室外熱交換器 (51)で発生した凝 縮水を洗浄水として利用することができる。 [0034] Further, according to the second invention, the condensed water generated in the outdoor heat exchanger (51) is supplied to the indoor heat exchanger (20) as washing water, and the outdoor heat exchange is performed during the heating operation. The condensed water generated in the vessel (51) can be used as washing water.
[0035] また、前記第 3の発明によれば、凝縮水生成手段 (70)により室外空気中の水分を 凝縮させて生成した凝縮水が洗浄水として室内熱交 (20)に供給され、冷暖房 運転中にかかわらず凝縮水を安定的に得ることができる。 [0035] Further, according to the third invention, the condensed water generated by condensing moisture in the outdoor air by the condensed water generating means (70) is supplied to the indoor heat exchanger (20) as washing water, and is Condensed water can be obtained stably regardless of the operation.
[0036] また、前記第 4の発明によれば、吸湿部材 (71)で室外空気中の水分が吸着され、 加熱手段 (72)で吸湿部材 (71)に吸着された水分が脱離され、凝縮手段 (73)で吸湿 部材 (71)から脱離した水蒸気が凝縮されるので、洗浄水として利用可能な凝縮水を 得ることができる。 [0036] According to the fourth invention, moisture in the outdoor air is adsorbed by the moisture absorbing member (71), and moisture adsorbed on the moisture absorbing member (71) is desorbed by the heating means (72), Since the water vapor desorbed from the hygroscopic member (71) is condensed by the condensing means (73), condensed water that can be used as washing water can be obtained.
[0037] また、前記第 5の発明によれば、凝縮水生成手段 (70)で生成された凝縮水ととも に室外熱交 (51)で発生した凝縮水が洗浄水として室内熱交 (20)に供給さ れ、洗浄水として十分な水量を安定的に得ることができる。 [0037] According to the fifth aspect of the present invention, the condensed water generated in the outdoor heat exchange (51) together with the condensed water generated in the condensed water generating means (70) is used as washing water in the indoor heat exchange (20 ) And a sufficient amount of water as washing water can be stably obtained.
[0038] また、前記第 6の発明によれば、室内熱交換器 (20)で発生した凝縮水が保管タン ク (63)に保管され、保管タンク (63)に保管された凝縮水が洗浄水として室内熱交換
器 (20)に供給され、室内熱交換器 (20)で発生した凝縮水を洗浄水として再利用す ることがでさる。 [0038] According to the sixth invention, the condensed water generated in the indoor heat exchanger (20) is stored in the storage tank (63), and the condensed water stored in the storage tank (63) is washed. Indoor heat exchange as water It is possible to reuse the condensed water supplied to the heat exchanger (20) and generated in the indoor heat exchanger (20) as washing water.
[0039] また、前記第 7の発明によれば、室内熱交翻 (20)に付着した塵埃が、冷房運転 中は室内熱交換器 (20)で発生する凝縮水で除去され、暖房運転中は水供給手段( [0039] Further, according to the seventh aspect of the invention, the dust adhering to the indoor heat exchanger (20) is removed by the condensed water generated in the indoor heat exchanger (20) during the cooling operation, and during the heating operation Means water supply (
60)カゝら供給される洗浄水で除去されるから、室内機(10)外部から導入される洗浄水 を無駄なく利用することができる。 60) Since it is removed by the wash water supplied from the door, the wash water introduced from the outside of the indoor unit (10) can be used without waste.
[0040] また、前記第 8の発明によれば、室内熱交換器 (20)の上流側に放電手段 (30)が 配設され、室内熱交換器 (20)の除菌が行われるから、室内熱交換器 (20)でカビゃ 細菌が繁殖することを抑制する上で有利となる。 [0040] According to the eighth aspect of the invention, the discharge means (30) is disposed upstream of the indoor heat exchanger (20), and the indoor heat exchanger (20) is sterilized. In the indoor heat exchanger (20), mold is advantageous in suppressing the growth of bacteria.
[0041] また、前記第 9の発明によれば、ストリーマ放電により空気の絶縁破壊が生じると、 空気中で活性種 (ラジカル、高速電子、励起分子等)が発生し、他の放電と比較して 高活性の活性種を多量に生成することができる。従って、放電手段 (30)の単位設置 スペースあたりの被処理成分の分解効率を向上できる。 [0041] According to the ninth aspect of the invention, when air breakdown occurs due to streamer discharge, active species (radicals, fast electrons, excited molecules, etc.) are generated in the air, compared with other discharges. Highly active species can be produced in large quantities. Therefore, the decomposition efficiency of the component to be treated per unit installation space of the discharge means (30) can be improved.
[0042] また、前記第 10の発明によれば、イオンィ匕手段 (25)の放電極 (31)及び対向極 (3[0042] According to the tenth aspect of the invention, the discharge electrode (31) and the counter electrode (3) of the ionization means (25)
2)が空気流れ方向に略直交する方向に放電するように配設され、流入空気中の塵 埃が確実に帯電される。 2) is arranged so as to discharge in a direction substantially perpendicular to the air flow direction, and the dust in the incoming air is reliably charged.
[0043] また、前記第 11の発明によれば、線状の放電極 (31)が面状の対向極 (32)に略 平行に配置され、空気流入面全体にわたって放電が行われるようになり、より確実に 流入空気中の塵埃が帯電される。 [0043] According to the eleventh aspect of the invention, the linear discharge electrode (31) is disposed substantially parallel to the planar counter electrode (32), and discharge is performed over the entire air inflow surface. The dust in the incoming air is more reliably charged.
[0044] また、前記第 12の発明によれば、保管タンク (63)に洗浄水が保管され、水搬送ポ ンプ (62)により水搬送配管 (61)を通して保管タンク (63)から室内熱交換器 (20)に洗 浄水が供給される。 [0044] According to the twelfth aspect of the present invention, the wash water is stored in the storage tank (63), and the indoor heat exchange from the storage tank (63) through the water transfer pipe (61) by the water transfer pump (62). Clean water is supplied to the vessel (20).
[0045] また、前記第 13の発明によれば、水搬送配管 (61)の供給側先端部がノズル形状 に形成される一方、洗浄水の供給方向が変更可能に構成されるから、洗浄水を室内 熱交 (20)の全面にわたって供給することができる。 [0045] Further, according to the thirteenth aspect of the invention, the supply-side tip of the water transfer pipe (61) is formed in a nozzle shape, and the supply direction of the cleaning water can be changed. Can be supplied over the entire surface of the indoor heat exchanger (20).
図面の簡単な説明 Brief Description of Drawings
[0046] [図 1]図 1は、本発明の実施形態 1の空気調和装置の構成を示す概略図である。 FIG. 1 is a schematic diagram showing a configuration of an air-conditioning apparatus according to Embodiment 1 of the present invention.
[図 2]図 2は、実施形態 1のイオンィ匕ユニットの構成を示す概略図である。
[図 3]図 3は、実施形態 1の水供給ユニットの構成を示す概略図である。 FIG. 2 is a schematic diagram showing a configuration of an ion source unit according to the first embodiment. FIG. 3 is a schematic diagram showing the configuration of the water supply unit of the first embodiment.
[図 4]図 4は、実施形態 2の空気調和装置の構成を示す概略図である。 FIG. 4 is a schematic diagram showing a configuration of an air conditioner according to Embodiment 2.
[図 5]図 5は、実施形態 2の凝縮水生成ユニットの構成を示す概略図である。 FIG. 5 is a schematic view showing a configuration of a condensed water generating unit according to the second embodiment.
[図 6]図 6は、実施形態 3の空気調和装置の構成を示す概略図である。 FIG. 6 is a schematic view showing a configuration of an air conditioner according to Embodiment 3.
[図 7]図 7は、実施形態 4の空気調和装置の構成を示す概略図である。 FIG. 7 is a schematic view showing a configuration of an air conditioner according to Embodiment 4.
符号の説明 Explanation of symbols
10 室内機 10 Indoor unit
20 室内熱交換器 20 Indoor heat exchanger
25 イオンィ匕ユニット (イオン化手段) 25 ionic unit (ionization means)
30 放電ユニット (放電手段) 30 Discharge unit (Discharge means)
50 室外機 50 outdoor unit
51 室外熱交 51 Outdoor heat exchange
60 水供給ユニット (水供給手段) 60 Water supply unit (Water supply means)
61 水搬送配管 61 Water transfer piping
62 水搬送ポンプ 62 Water transfer pump
63 保管タンク 63 Storage tank
70 凝縮水生成ユニット (凝縮水生成手段) 70 Condensate generation unit (Condensate generation means)
71 吸湿部材 71 Hygroscopic material
72 加熱部 (加熱手段) 72 Heating part (heating means)
73 凝縮部 (凝縮手段) 73 Condensing part (condensing means)
100 空気調和装置 100 air conditioner
発明を実施するための最良の形態 BEST MODE FOR CARRYING OUT THE INVENTION
[0048] 以下、本発明の実施形態を図面に基づいて詳細に説明する。以下の好ましい実 施形態の説明は、本質的に例示に過ぎず、本発明、その適用物或いはその用途を 制限することを意図するものでは全くない。 Hereinafter, embodiments of the present invention will be described in detail with reference to the drawings. The following description of preferred embodiments is merely exemplary in nature and is in no way intended to limit the invention, its application, or its use.
[0049] <実施形態 1 > <Embodiment 1>
図 1は本発明の実施形態 1に係る空気調和装置の構成を示す概略図である。本 実施形態 1に係る空気調和装置(100)は、室内空間の側壁に取り付けられる、いわ
ゆる壁掛け式のルームエアコンで構成されている。この空気調和装置(100)は、被処 理空気としての室内空気の空気調和と清浄とを同時に行う。 FIG. 1 is a schematic diagram showing a configuration of an air-conditioning apparatus according to Embodiment 1 of the present invention. The air conditioner (100) according to Embodiment 1 is attached to a side wall of an indoor space. It consists of a loose wall-mounted room air conditioner. The air conditioner (100) simultaneously performs air conditioning and cleaning of indoor air as processing air.
[0050] 図 1に示すように、空気調和装置(100)の室内機(10)は、横長で略直方体形状の ケーシング(11)を備えている。ケーシング(11)には、吸込口(12)と吹出口(13)とが 形成されている。前記吸込口(12)は、室内空気をケーシング(11)内に取り込むため の空気の導入口であり、ケーシング(11)の前面側及び上面側にそれぞれ形成されて いる。 [0050] As shown in FIG. 1, the indoor unit (10) of the air conditioner (100) includes a casing (11) that is horizontally long and has a substantially rectangular parallelepiped shape. The casing (11) is formed with an inlet (12) and an outlet (13). The suction port (12) is an air inlet for taking indoor air into the casing (11), and is formed on the front side and the upper side of the casing (11), respectively.
[0051] 前記吹出口(13)は、室内機(10)で処理した空気をケーシング(11)内から室内空 間へ供給する空気の供給口であり、ケーシング(11)の前面側下部から室内に斜め下 向きに空気を供給するように形成されて 、る。 [0051] The air outlet (13) is an air supply port for supplying air treated by the indoor unit (10) from the inside of the casing (11) to the indoor space. It is formed so as to supply air obliquely downward.
[0052] 前記ケーシング(11)の内部には、前記吸込口(12)から前記吹出口(13)までの間 に被処理空気の流れる空気流路(15)が形成されている。この空気流路(15)には、空 気の流れの上流側から下流側に向力つて順に、イオン化ユニット (25)、室内熱交換 器 (20)、及びファン(14)が配置されて 、る。 [0052] In the casing (11), an air flow path (15) through which air to be treated flows is formed between the suction port (12) and the blowout port (13). In this air flow path (15), an ionization unit (25), an indoor heat exchanger (20), and a fan (14) are arranged in order from the upstream side to the downstream side of the air flow. The
[0053] 前記イオンィ匕ユニット(25)は、吸込口(12)から取り込まれた空気中の塵埃を放電 により帯電させるものであり、帯電された塵埃が室内熱交 (20)の表面に付着す る。 [0053] The ionizer unit (25) charges the dust in the air taken in from the suction port (12) by discharging, and the charged dust adheres to the surface of the indoor heat exchanger (20). The
[0054] 具体的には、図 2に示すように、イオンィ匕ユニット (25)は、放電の基端となる放電 極 (31)と、放電極 (31)に対向する対向極 (32)とで構成される。 Specifically, as shown in FIG. 2, the ionizer unit (25) includes a discharge electrode (31) serving as a base end of discharge and a counter electrode (32) facing the discharge electrode (31). Consists of.
[0055] 前記放電極 (31)は、線状又は棒状に形成され、空気流れ方向と直交する左右方 向に延びている。この放電極(31)は、その線径が約 0. 2mmのタングステン線で構 成されている。前記対向極 (32)は、板状又は面状に形成され、放電極 (31)と略平行 に配置されている。このように、放電極 (31)と対向極 (32)とが上下方向に交互に複 数配設されている。 [0055] The discharge electrode (31) is formed in a linear shape or a rod shape, and extends in the left-right direction perpendicular to the air flow direction. The discharge electrode (31) is composed of a tungsten wire having a wire diameter of about 0.2 mm. The counter electrode (32) is formed in a plate shape or a planar shape, and is disposed substantially parallel to the discharge electrode (31). Thus, a plurality of discharge electrodes (31) and counter electrodes (32) are alternately arranged in the vertical direction.
[0056] また、イオン化ユニット(25)は、図示しな!、高圧の直流電源を備えて 、る。直流電 源の正極側は、前記放電極 (31)と電気的に接続されている。一方、直流電源の負極 側(アース側)は、前記対向極 (32)と電気的に接続されて 、る。 [0056] Further, the ionization unit (25) includes a high-voltage DC power source (not shown). The positive electrode side of the DC power source is electrically connected to the discharge electrode (31). On the other hand, the negative electrode side (ground side) of the DC power supply is electrically connected to the counter electrode (32).
[0057] 以上のような構成のイオンィ匕ユニット(25)では、両電極 (31,32)に電圧が印加され
ると、放電極 (31)力 対向極 (32)に向かって放電が行われ、その結果、空気流入面 全体に対していわゆる電子のカーテンが生成されることとなり、流入空気中の塵埃を 確実に帯電させる上で有利となる。 [0057] In the ionization unit (25) configured as described above, voltage is applied to both electrodes (31, 32). Then, the discharge electrode (31) force is discharged toward the counter electrode (32). As a result, a so-called electron curtain is generated on the entire air inflow surface, and dust in the inflow air is surely secured. It is advantageous in charging the battery.
[0058] なお、図 2では、室内機(10)の前面側から流入する空気に対して放電するための イオン化ユニット (25)の配置につ 、てのみ説明し、室内機(10)の上面側から流入す る空気に対するイオンィ匕ユニット (25)の配置の説明を省略しているが同様の構成で ある。 [0058] In Fig. 2, only the arrangement of the ionization unit (25) for discharging air flowing from the front side of the indoor unit (10) will be described, and the top surface of the indoor unit (10) will be described. The description of the arrangement of the ionizer unit (25) with respect to the air flowing in from the side is omitted, but the configuration is the same.
[0059] 前記室内熱交換器 (20)は、室外機 (50)と接続されており、冷媒が循環して冷凍 サイクルを行う冷媒回路の一部を構成している。この室内熱交 (20)は、いわゆる フィンアンドチューブ式の空気熱交^^を構成して 、る。 [0059] The indoor heat exchanger (20) is connected to the outdoor unit (50), and constitutes a part of a refrigerant circuit in which the refrigerant circulates and performs a refrigeration cycle. This indoor heat exchange (20) constitutes a so-called fin-and-tube type air heat exchange ^^.
[0060] 図 1に示すように、空気流路(15)には、 2台の熱交^^ (21,22)が配置されている 。第 1熱交換器 (21)は、空気流路(15)の前面寄りでその上端部が後面側に傾倒した 状態で配置されている。第 2熱交換器 (22)は、空気流路 (15)の後面寄りでその上端 部が前面側に傾倒した状態で且つ第 1熱交 (21)の上端部と当接するように配置 されている。 [0060] As shown in FIG. 1, two heat exchangers (21, 22) are arranged in the air flow path (15). The first heat exchanger (21) is arranged near the front surface of the air flow path (15) with its upper end inclined to the rear surface side. The second heat exchanger (22) is disposed near the rear surface of the air flow path (15) with its upper end inclined to the front side and in contact with the upper end of the first heat exchanger (21). Yes.
[0061] 前記第 1及び第 2熱交換器 (21, 22)のそれぞれの下方には、第 1及び第 2熱交換 器 (21, 22)で発生した凝縮水を受けるドレンパン (23)が設けられている。このドレン パン (23)には、回収した凝縮水を室外に排水する排水管 (24)が接続されて!、る。 [0061] A drain pan (23) for receiving condensed water generated in the first and second heat exchangers (21, 22) is provided below each of the first and second heat exchangers (21, 22). It has been. The drain pan (23) is connected with a drain pipe (24) for draining the collected condensed water to the outside!
[0062] 前記ファン(14)は、回転動作により室内空気を吸込口(12)力 ケーシング(11)内 に取り込み、室内熱交換器 (20)で処理した空気を吹出口(13)から室内空間へ供給 するためのものである。 [0062] The fan (14) takes in indoor air into the casing (11) through the suction port (12) force casing by rotation, and the air treated by the indoor heat exchanger (20) from the outlet (13) to the indoor space. It is for supplying to
[0063] 前記空気調和装置 (100)の室外機 (50)は、室外熱交換器 (51)と室外機ファン (5 2)とを備えている。 [0063] The outdoor unit (50) of the air conditioner (100) includes an outdoor heat exchanger (51) and an outdoor unit fan (52).
[0064] 前記室外熱交換器 (51)の下方には、室外熱交換器 (51)で発生した凝縮水を受 けるドレンパン(53)が設けられている。このドレンパン(53)には、室内熱交^^ (20) に洗浄水を供給する水供給ユニット (60)が接続されて!ヽる。 [0064] Below the outdoor heat exchanger (51), a drain pan (53) for receiving condensed water generated in the outdoor heat exchanger (51) is provided. The drain pan (53) is connected with a water supply unit (60) for supplying cleaning water to the indoor heat exchanger (^).
[0065] 前記水供給ユニット (60)は、洗浄水の流路をなす水搬送配管 (61)と、室外熱交 換器 (51)で発生した凝縮水を、水搬送配管 (61)を通して室内熱交換器 (20)に洗浄
水として供給する水搬送ポンプ (62)とを備えて!/ヽる。 [0065] The water supply unit (60) is configured to pass the condensed water generated in the water transfer pipe (61) and the outdoor heat exchanger (51), which form a flow path of the washing water, through the water transfer pipe (61). Wash in heat exchanger (20) It is equipped with a water transfer pump (62) that supplies water as water!
[0066] 前記水搬送配管 (61)の供給側先端部は、ノズル形状に形成される一方、洗浄水 の供給方向が変更可能に構成されている。このような構成にすれば、ノズルカゝら洗浄 水がシャワー状に噴霧され、室内熱交 (20)の表面全体に洗浄水を供給すること ができる。さらに、洗浄水の供給方向が変更可能となっていることから、ノズルを首振 りさせる等、多様な動きにより室内熱交 (20)の表面全体に洗浄水を供給する上 で有利となる。 [0066] The supply-side tip of the water transfer pipe (61) is formed in a nozzle shape, and is configured so that the supply direction of the wash water can be changed. With such a configuration, the cleaning water from the nozzle cover can be sprayed like a shower, and the cleaning water can be supplied to the entire surface of the indoor heat exchanger (20). Furthermore, since the supply direction of the wash water can be changed, it is advantageous to supply the wash water to the entire surface of the indoor heat exchanger (20) by various movements such as swinging the nozzle.
[0067] なお、図 3に示すように、前記水供給ユニット (60)は、凝縮水を一時保管するため の保管タンク(63)を備えた構成にしても構わない。この場合には、一定量の凝縮水 がたまった後に、水搬送ポンプ (62)により保管タンク (63)から取り出された凝縮水が 洗浄水として室内熱交 (20)に供給される。 [0067] As shown in FIG. 3, the water supply unit (60) may include a storage tank (63) for temporarily storing condensed water. In this case, after a certain amount of condensed water has accumulated, the condensed water taken out from the storage tank (63) by the water transfer pump (62) is supplied to the indoor heat exchanger (20) as washing water.
[0068] 運転動作 [0068] Driving action
次に、本実施形態の空気調和装置(100)の運転動作について説明する。まず、 空気調和装置(100)の冷房運転動作につ!、て説明する。 Next, the operation of the air conditioner (100) of the present embodiment will be described. First, the cooling operation of the air conditioner (100) will be described.
[0069] 図 1に示すように、空気調和装置(100)の運転時には、ファン(14)が運転状態とな る。また、直流電源力もイオンィ匕ユニット (25)に直流電圧が印加され、イオン化ュ-ッ ト(25)で放電が行われる。さらに、室内熱交 (20)の内部には低圧の液冷媒が流 通し、この室内熱交 (20)が蒸発器として機能する。 As shown in FIG. 1, when the air conditioner (100) is in operation, the fan (14) is in an operating state. In addition, a DC voltage is applied to the ionization unit (25), and a discharge is performed in the ionization unit (25). Furthermore, low-pressure liquid refrigerant flows inside the indoor heat exchanger (20), and this indoor heat exchanger (20) functions as an evaporator.
[0070] 室内空気が吸込口(12)力 ケーシング(11)内に導入されると、この空気中の塵 埃はイオンィ匕ユニット (25)により帯電する。帯電した塵埃は、室内熱交翻 (20)に付 着する。 [0070] When indoor air is introduced into the inlet (12) force casing (11), the dust in the air is charged by the ionic unit (25). Charged dust adheres to indoor heat exchange (20).
[0071] ここで、冷房運転中の室内熱交 (20)には凝縮水が発生するため、この凝縮 水により、室内熱交換器 (20)の表面に付着した塵埃が洗い流され、室内熱交換器 (2 0)の下方に設けられたドレンパン (23)で回収される。回収された凝縮水は、排水管( 24)を通って室外に排水される。 [0071] Here, since condensed water is generated in the indoor heat exchanger (20) during the cooling operation, the dust adhering to the surface of the indoor heat exchanger (20) is washed away by the condensed water, and the indoor heat exchange is performed. It is collected by a drain pan (23) provided below the vessel (20). The collected condensed water is drained outside through the drain pipe (24).
[0072] イオンィ匕ユニット(25)を経て清浄ィ匕された空気は、室内熱交 (20)を流通する 。室内熱交換器 (20)では、空気から冷媒の蒸発熱が奪われ、被処理空気の冷却が 行われる。以上のようにして清浄ィ匕及び温調された空気は、吹出口(13)から室内空
間へ供給される。 [0072] The air purified through the ionizer unit (25) circulates in the indoor heat exchanger (20). In the indoor heat exchanger (20), the heat of evaporation of the refrigerant is taken from the air, and the air to be treated is cooled. The air that has been cleaned and temperature-controlled as described above is discharged from the air outlet (13) into the room air. Supplied between.
[0073] 次に、暖房運転動作について、冷房運転動作と異なる動作のみを説明する。空 気調和装置(100)の運転時には、室外熱交換器 (51)の内部には低圧の液冷媒が流 通し、この室外熱交翻 (51)が蒸発器として機能する。 [0073] Next, regarding the heating operation, only the operation different from the cooling operation will be described. During operation of the air conditioner (100), low-pressure liquid refrigerant flows inside the outdoor heat exchanger (51), and this outdoor heat exchange (51) functions as an evaporator.
[0074] 室外熱交換器 (51)では凝縮水が発生し、この凝縮水は室外熱交換器 (51)の下 方に設けられたドレンパン (53)で回収される。回収された凝縮水は、水搬送ポンプ (6 2)により水搬送配管 (61)を通して室内熱交 (20)に洗浄水として供給される。こ れにより、暖房運転動作時においても、水供給ユニット(60)によって室内熱交換器 (2 0)に付着した塵埃を除去することができる。 [0074] Condensed water is generated in the outdoor heat exchanger (51), and this condensed water is recovered by a drain pan (53) provided below the outdoor heat exchanger (51). The collected condensed water is supplied as washing water to the indoor heat exchanger (20) through the water transfer pipe (61) by the water transfer pump (62). Thereby, even during the heating operation, dust attached to the indoor heat exchanger (20) can be removed by the water supply unit (60).
[0075] 以上のように、本実施形態 1に係る空気調和装置(100)によれば、イオン化ュニッ ト (25)により流入空気中の塵埃を帯電させると、帯電した塵埃が室内熱交換器 (20) に電気的に付着し、水供給ユニット (60)で供給される洗浄水により除去される。この ため、室内熱交換器 (20)で凝縮水が発生しない暖房運転時においても、室内熱交 換器 (20)に付着した塵埃が除去され、空調性能を確保する上で有利となる。 [0075] As described above, according to the air conditioner (100) of the first embodiment, when the dust in the inflowing air is charged by the ionization unit (25), the charged dust is transferred to the indoor heat exchanger ( 20) and is removed by the washing water supplied by the water supply unit (60). For this reason, even during heating operation in which condensed water is not generated in the indoor heat exchanger (20), dust adhering to the indoor heat exchanger (20) is removed, which is advantageous in ensuring air conditioning performance.
[0076] <実施形態 2> <Embodiment 2>
図 4は本発明の実施形態 2に係る空気調和装置の構成を示す概略図である。前 記実施形態 1との違いは、室外空気中の水分を凝縮させて凝縮水を生成する凝縮 水生成ユニットを設けた点であるため、以下、実施形態 1と同じ部分については同じ 符号を付し、相違点についてのみ説明する。 FIG. 4 is a schematic diagram showing the configuration of the air-conditioning apparatus according to Embodiment 2 of the present invention. The difference from the first embodiment is that a condensed water generation unit that condenses the moisture in the outdoor air to generate condensed water is provided, and therefore the same parts as those in the first embodiment are denoted by the same reference numerals hereinafter. Only the differences will be described.
[0077] 図 4に示すように、空気調和装置(150)の室外機 (50)は、室外熱交換器 (51)と室 外機ファン (52)に加えて、室外空気中の水分を凝縮させて凝縮水を生成する凝縮 水生成ユニット (70)を備えて!/、る。 [0077] As shown in FIG. 4, the outdoor unit (50) of the air conditioner (150) condenses moisture in the outdoor air in addition to the outdoor heat exchanger (51) and the outdoor unit fan (52). It is equipped with a condensate generation unit (70) that generates condensate!
[0078] 前記凝縮水生成ユニット (70)は、図 5に示すように、室外空気中の水分を吸着す る吸湿部材 (71)と、吸湿部材 (71)に吸着した水分を脱離させる加熱部(72)と、加熱 部(72)で吸湿部材 (71)力 脱離させた水蒸気を送風により凝縮部(73)に搬送する 送風部(74)と、吸湿部材 (71)力 脱離させた水蒸気を凝縮させて凝縮水を生成する 凝縮部(73)とを備えている。 As shown in FIG. 5, the condensed water generating unit (70) includes a moisture absorbing member (71) that adsorbs moisture in outdoor air, and a heating that desorbs moisture adsorbed on the moisture absorbing member (71). Moisture absorption member (71) force desorbed by heating part (72) and heating part (72) The water vapor transported to condensation unit (73) by air blowing and air blowing part (74) and moisture absorption member (71) force desorption And a condensing part (73) for generating condensed water by condensing the water vapor.
[0079] 具体的に、前記吸湿部材 (71)は、ゼォライトやシリカゲル等の吸湿性材料を円柱
状に形成してなり回転軸周りに回転可能なローター構造となって 、る。吸湿部材 (71 )は、吸着領域と脱離領域とに区画されており、室外空気が吸湿部材 (71)の吸着領 域を通過することで、室外空気中の水分が吸湿部材 (71)に吸着される。 [0079] Specifically, the hygroscopic member (71) is a cylinder made of hygroscopic material such as zeolite or silica gel. A rotor structure that can be rotated around the rotation axis is formed. The hygroscopic member (71) is partitioned into an adsorption region and a desorption region, and outdoor air passes through the adsorption region of the hygroscopic member (71), so that moisture in the outdoor air enters the hygroscopic member (71). Adsorbed.
[0080] また、吸湿部材 (71)の脱離領域の下方には加熱部(72)が配設され、加熱部(72) により吸湿部材 (71)で吸着した水分が吸湿部材 (71)から脱離する。 [0080] A heating unit (72) is disposed below the desorption region of the moisture absorbing member (71), and moisture adsorbed by the moisture absorbing member (71) by the heating unit (72) is absorbed from the moisture absorbing member (71). Detach.
[0081] 前記加熱部(72)の下方には送風部(74)が配設され、加熱部(72)で吸湿部材 (7 1)から脱離させた水蒸気を送風して凝縮部(73)まで搬送する。凝縮部(73)では、水 蒸気を凝縮させて凝縮水を生成する。 [0081] A blowing unit (74) is disposed below the heating unit (72), and the condensation unit (73) is configured to blow water vapor desorbed from the moisture absorbing member (71) by the heating unit (72). Transport to. In the condensing unit (73), water vapor is condensed to generate condensed water.
[0082] 前記凝縮水生成ユニット (70)の下方には、凝縮部(73)で生成した凝縮水を回収 するドレンパン(54)が設けられている。このドレンパン(54)は、水供給ユニット(60)の 水搬送ポンプ (62)に接続されており、凝縮水生成ユニット(70)で生成した凝縮水が 、水搬送配管 (61)を通して室内熱交 (20)に洗浄水として供給される。 [0082] A drain pan (54) for recovering the condensed water generated in the condensing unit (73) is provided below the condensed water generating unit (70). The drain pan (54) is connected to the water transfer pump (62) of the water supply unit (60), and the condensed water generated by the condensed water generation unit (70) is exchanged with the indoor heat through the water transfer pipe (61). (20) supplied as washing water.
[0083] なお、前記実施形態 1では、室外熱交換器 (51)で発生した凝縮水を、室外熱交 [0083] In Embodiment 1, the condensed water generated in the outdoor heat exchanger (51) is used as the outdoor heat exchanger.
^ (51)の下方に設けられたドレンパン (53)で回収して水供給ユニット(60)に送る ようにしていたが、本実施形態 2では、室外熱交換器 (51)で発生した凝縮水はその まま排水するようにしている。もちろん、この形態に限定するものではなぐ室外熱交 换器 (51)の下方にドレンパン (53)を設けて!/ヽても構わな!/、。 ^ It was collected by the drain pan (53) provided below (51) and sent to the water supply unit (60), but in Embodiment 2, the condensed water generated in the outdoor heat exchanger (51) Is draining as it is. Of course, a drain pan (53) may be provided below the outdoor heat exchanger (51), which is not limited to this form!
[0084] 以上のように、本実施形態 2に係る空気調和装置(150)によれば、凝縮水生成ュ ニット (70)により室外空気中の水分を凝縮させて生成した凝縮水を洗浄水として室 内熱交翻 (20)に供給するようにしたから、冷暖房運転中にかかわらず凝縮水を安 定的に得ることができる。 [0084] As described above, according to the air conditioner (150) according to the second embodiment, the condensed water generated by condensing the moisture in the outdoor air by the condensed water generation unit (70) is used as washing water. Since it is supplied to the indoor heat exchanger (20), the condensed water can be stably obtained regardless of the air conditioning operation.
[0085] <実施形態 3 > [0085] <Embodiment 3>
図 6は本発明の実施形態 3に係る空気調和装置の構成を示す概略図である。前 記実施形態 2との違いは、室内熱交換器 (20)よりも上流側にストリーマ放電を行う放 電ユニット (30)を設けた点であるため、以下、実施形態 2と同じ部分については同じ 符号を付し、相違点についてのみ説明する。 FIG. 6 is a schematic diagram showing the configuration of the air-conditioning apparatus according to Embodiment 3 of the present invention. The difference from the second embodiment is that a discharge unit (30) that performs streamer discharge is provided upstream of the indoor heat exchanger (20). Only the differences will be described with the same reference numerals.
[0086] 図 6に示すように、空気調和装置 (200)の室内機(10)の空気流路(15)中には、室 内熱交換器 (20)よりも空気流れ方向の上流側に放電ユニット(30)が設けられている
。この放電ユニット(30)は、室内空気中の被処理成分を分解するためにストリーマ放 電を行うものである。ストリーマ放電により空気の絶縁破壊が生じると、空気中で活性 種 (ラジカル、高速電子、励起分子等)が発生し、他の放電と比較して高活性の活性 種を多量に生成することができる。 [0086] As shown in FIG. 6, in the air flow path (15) of the indoor unit (10) of the air conditioner (200), the air flow direction is more upstream than the indoor heat exchanger (20). Discharge unit (30) is provided . This discharge unit (30) performs streamer discharge in order to decompose a component to be treated in room air. When air breakdown occurs due to streamer discharge, active species (radicals, fast electrons, excited molecules, etc.) are generated in the air, and a large amount of highly active active species can be generated compared to other discharges. .
[0087] このように、空気調和装置 (200)の空気流路(15)にストリーマ放電を行う放電ュニ ット(30)を配置すれば、例えばグロ一放電やコロナ放電と比較して活性種を多量に 生成することができ、この空気調和装置(200)における単位設置スペースあたりの被 処理成分の分解性能を向上させて安定した空気浄ィ匕効率を得ることができる。 [0087] In this way, if the discharge unit (30) for performing the streamer discharge is arranged in the air flow path (15) of the air conditioner (200), it is more active than, for example, glow discharge or corona discharge. A large amount of seeds can be generated, and the decomposition performance of the component to be treated per unit installation space in the air conditioner (200) can be improved to obtain stable air purification efficiency.
[0088] また、水供給ユニット (60)は、凝縮水生成ユニット(70)で生成した凝縮水とともに 室外熱交換器 (51)で発生した凝縮水を、洗浄水として室内熱交換器 (20)に供給す るように構成されている。 [0088] Further, the water supply unit (60) uses the condensed water generated in the outdoor heat exchanger (51) together with the condensed water generated in the condensed water generating unit (70) as washing water, to the indoor heat exchanger (20). It is configured to supply to
[0089] 以上のように、本実施形態 3に係る空気調和装置 (200)によれば、放電ユニット (3 0)のストリーマ放電により空気の絶縁破壊が生じると、空気中で活性種 (ラジカル、高 速電子、励起分子等)が発生し、他の放電と比較して高活性の活性種を多量に生成 することができる。これにより、室内熱交 (20)の除菌が行われるから、室内熱交 (20)でカビゃ細菌が繁殖することを抑制する上で有利となる。 As described above, according to the air conditioner (200) according to the third embodiment, when the dielectric breakdown of air occurs due to the streamer discharge of the discharge unit (30), the active species (radicals, High-speed electrons, excited molecules, etc.) are generated, and high-activity active species can be produced in a large amount compared to other discharges. As a result, sterilization of the indoor heat exchange (20) is performed, which is advantageous in suppressing the growth of bacteria in the indoor heat exchange (20).
[0090] <実施形態 4> <Embodiment 4>
図 7は本発明の実施形態 4に係る空気調和装置の構成を示す概略図である。前 記実施形態 3との違いは、室内熱交翻 (20)で発生した凝縮水を保管タンク (63)に 保管して洗浄水として再利用する点であるため、以下、実施形態 3と同じ部分につい ては同じ符号を付し、相違点についてのみ説明する。 FIG. 7 is a schematic diagram showing the configuration of the air-conditioning apparatus according to Embodiment 4 of the present invention. The difference from the third embodiment is that the condensed water generated in the indoor heat exchange (20) is stored in the storage tank (63) and reused as cleaning water. Parts are denoted by the same reference numerals, and only the differences will be described.
[0091] 図 7に示すように、空気調和装置 (250)の室外機 (50)には、室内熱交換器 (20)に 供給する洗浄水を保管する保管タンク (63)が設けられて 、る。この保管タンク (63)に は、室外熱交換器 (51)で発生した凝縮水や凝縮水生成ユニット (70)で生成した凝 縮水の他に、室内熱交換器 (20)で発生した凝縮水が保管されるようになって!/、る。 As shown in FIG. 7, the outdoor unit (50) of the air conditioner (250) is provided with a storage tank (63) for storing cleaning water supplied to the indoor heat exchanger (20). The In addition to the condensed water generated in the outdoor heat exchanger (51) and condensed water generated in the condensed water generation unit (70), the storage tank (63) contains condensed water generated in the indoor heat exchanger (20). Is now stored! /
[0092] ここで、室外熱交 (51)及び凝縮水生成ユニット (70)の凝縮水は保管タンク (6 3)内にそのまま保管されるのに対し、室内熱交換器 (20)の凝縮水の排水経路は切り 替わるようになつている。
[0093] 以下、室内熱交換器 (20)の凝縮水の保管動作について説明する。 Here, the condensed water in the outdoor heat exchanger (51) and the condensed water generation unit (70) is stored as it is in the storage tank (63), whereas the condensed water in the indoor heat exchanger (20). The drainage route is switched. [0093] The condensate storage operation of the indoor heat exchanger (20) will be described below.
[0094] 前記室内熱交換器 (20)で発生した凝縮水はドレンパン (23)で回収され、排水管 [0094] The condensed water generated in the indoor heat exchanger (20) is recovered by a drain pan (23), and is discharged into a drain pipe.
(24)を通って室外に排水される。排水管 (24)はその管路途中で 2つに分岐しており 、保管タンク (63)内の洗浄水の水量に基づいて凝縮水の排水方向が切り替わるよう になっている。 It is drained outside through (24). The drain pipe (24) is branched into two in the middle of the pipe line, and the drain direction of the condensed water is switched based on the amount of washing water in the storage tank (63).
[0095] 具体的に、排水管 (24)の分岐点に設けられた排水切替バルブ (64)は、保管タン ク(63)内の水位を測定するフロートスィッチ (65)から出力される制御信号に基づいて 切り替わるようになつている。すなわち、保管タンク(63)内の水位が規定値よりも低い 場合には、保管タンク (63)内の水量が不足していると判断して、排水切替バルブ (64 )を切り替えて、室内熱交 (20)の凝縮水が保管タンク (63)に流入されるようにす る。これにより、室内熱交^^ (20)の凝縮水は、濾過フィルタ (66)を通過して濾過さ れた後、保管タンク (63)内に保管される。 [0095] Specifically, the drain switching valve (64) provided at the branch point of the drain pipe (24) is a control signal output from the float switch (65) for measuring the water level in the storage tank (63). It is designed to switch based on. That is, when the water level in the storage tank (63) is lower than the specified value, it is determined that the amount of water in the storage tank (63) is insufficient, and the drain switching valve (64) is switched to Allow the condensate (20) to flow into the storage tank (63). Thus, the condensed water in the indoor heat exchanger (20) is filtered through the filtration filter (66) and then stored in the storage tank (63).
[0096] 一方、保管タンク (63)内の水位が規定値よりも高 、場合には、保管タンク (63)内 に凝縮水をさらに流入させるとあふれ出すおそれがあるため、室内熱交^^ (20)の 凝縮水の保管タンク(63)内への流入を阻止すベぐ排水切替バルブ (64)を切り替え て、室内熱交換器 (20)の凝縮水がそのまま室外に排水されるようにする。 [0096] On the other hand, if the water level in the storage tank (63) is higher than the specified value, there is a risk of overflow if condensed water further flows into the storage tank (63). Switch the drainage switching valve (64) to prevent the condensate from flowing into the storage tank (63) of (20) so that the condensate in the indoor heat exchanger (20) is drained out of the room. To do.
[0097] そして、前記水搬送配管 (61)の管路途中には、清掃切替バルブ (67)が設けられ ている。この清掃切替バルブ (67)は、水搬送ポンプ (62)により保管タンク (63)から吸 V、上げた洗浄水を室内熱交換器 (20)側に供給するか、又は室内熱交換器 (20)の 凝縮水が濾過フィルタ (66)を通過する方向と逆方向であるフィルタ清掃方向から、洗 浄水を濾過フィルタ(66)に通過させるように切り替えるものである。 [0097] A cleaning switching valve (67) is provided in the middle of the water conveyance pipe (61). This cleaning switching valve (67) supplies water that has been sucked up and raised from the storage tank (63) by the water transfer pump (62) to the indoor heat exchanger (20) side, or the indoor heat exchanger (20 ) From the filter cleaning direction that is opposite to the direction in which the condensed water passes through the filtration filter (66) so as to pass the cleaning water through the filtration filter (66).
[0098] 具体的に、室内熱交 (20)力 排水される凝縮水には、室内熱交 (20)に 付着した塵埃が含まれているため、凝縮水を保管タンク (63)に保管する前に塵埃を 濾過フィルタ(66)で取り除くようにしている力 そのまま放置しておくと、濾過フィルタ( 66)が目詰まりして凝縮水が流通しなくなってしまうおそれがある。 [0098] Specifically, the condensed water discharged from the indoor heat exchanger (20) force contains dust adhering to the indoor heat exchanger (20), so the condensed water is stored in the storage tank (63). The force that removes dust with the filtration filter (66) in advance If left as it is, the filtration filter (66) may be clogged and the condensed water may not flow.
[0099] そこで、タイマーにより所定時間が経過したことを検知する力、又は濾過フィルタ( 66)の汚れ度をセンサ等により検知して、濾過フィルタ (66)の清掃が必要であると判 断された場合に、清掃切替バルブ (67)を切り替えて、水搬送ポンプ (62)により吸い
上げた洗浄水を濾過フィルタ (66)のフィルタ清掃方向側力 供給して洗浄することで[0099] Therefore, it is determined that the filtration filter (66) needs to be cleaned by detecting the force of detecting that a predetermined time has passed by the timer or the degree of contamination of the filtration filter (66) with a sensor or the like. If this happens, switch the cleaning switching valve (67) and use the water transfer pump (62) By cleaning the raised wash water by supplying side force in the filter cleaning direction of the filter (66)
、濾過フィルタ(66)に付着した塵埃を除去して清浄度を保つようにしている。 The dust adhering to the filter (66) is removed so as to maintain cleanliness.
[0100] また、前記保管タンク (63)には、保管タンク (63)内の洗浄水中の有害物を分解し て保管タンク (63)内の水質を維持すベぐ放電により活性種を発生させて洗浄水に 供給するプラズマ放電ユニット (68)が設けられて 、る。 [0100] Further, in the storage tank (63), active species are generated by a discharge that decomposes harmful substances in the wash water in the storage tank (63) to maintain the water quality in the storage tank (63). A plasma discharge unit (68) for supplying cleaning water is provided.
[0101] 以上のように、本実施形態 4に係る空気調和装置 (250)によれば、室内熱交換器 [0101] As described above, according to the air conditioner (250) of Embodiment 4, the indoor heat exchanger
(20)で発生した凝縮水が保管タンク (63)に保管され、保管タンク (63)に保管された 凝縮水が洗浄水として室内熱交 (20)に供給されるから、室内熱交 (20)で 発生した凝縮水を洗浄水として再利用することができる。 The condensed water generated in (20) is stored in the storage tank (63), and the condensed water stored in the storage tank (63) is supplied to the indoor heat exchanger (20) as washing water. ) Can be reused as washing water.
産業上の利用可能性 Industrial applicability
[0102] 以上説明したように、本発明は、室内熱交換器で凝縮水が発生しない暖房運転 時においても、室内熱交^^の洗浄を行うことができるという実用性の高い効果が得 られることから、きわめて有用で産業上の利用可能性は高い。
[0102] As described above, the present invention provides a highly practical effect that the indoor heat exchanger can be cleaned even during heating operation in which condensed water is not generated in the indoor heat exchanger. Therefore, it is extremely useful and has high industrial applicability.
Claims
[1] 室内熱交換器 (20)を有する室内機 (10)と、室外熱交換器 (51)を有する室外機( 50)とを備えた空気調和装置であって、 [1] An air conditioner comprising an indoor unit (10) having an indoor heat exchanger (20) and an outdoor unit (50) having an outdoor heat exchanger (51),
前記室内熱交換器 (20)の上流側に配設され、流入空気中の塵埃を前記室内熱 交^^ (20)に電気的に付着するために前記塵埃を帯電させるイオン化手段 (25)と、 前記室内機 (10)の外部力 洗浄水を導入して前記室内熱交換器 (20)に供給す る水供給手段 (60)とを備えて!/、る An ionization means (25) disposed on the upstream side of the indoor heat exchanger (20) for charging the dust to electrically attach dust in the inflowing air to the indoor heat exchanger (20); Water supply means (60) that introduces external force wash water of the indoor unit (10) and supplies it to the indoor heat exchanger (20).
ことを特徴とする空気調和装置。 An air conditioner characterized by that.
[2] 請求項 1において、 [2] In claim 1,
前記水供給手段 (60)は、前記室外熱交換器 (51)で発生した凝縮水を洗浄水とし て前記室内熱交 (20)に供給するように構成されて!、る The water supply means (60) is configured to supply condensed water generated in the outdoor heat exchanger (51) to the indoor heat exchanger (20) as washing water! RU
ことを特徴とする空気調和装置。 An air conditioner characterized by that.
[3] 請求項 1において、 [3] In claim 1,
前記室外機 (50)には、室外空気中の水分を凝縮させて凝縮水を生成する凝縮 水生成手段 (70)が設けられ、 The outdoor unit (50) is provided with condensed water generating means (70) for generating condensed water by condensing moisture in the outdoor air,
前記水供給手段 (60)は、前記凝縮水生成手段 (70)で生成した凝縮水を洗浄水 として前記室内熱交 (20)に供給するように構成されて!ヽる The water supply means (60) is configured to supply the condensed water generated by the condensed water generation means (70) as washing water to the indoor heat exchanger (20)! Scold
ことを特徴とする空気調和装置。 An air conditioner characterized by that.
[4] 請求項 3において、 [4] In claim 3,
前記凝縮水生成手段 (70)は、 The condensed water generating means (70)
室外空気中の水分を吸着する吸湿部材 (71)と、 A moisture absorbing member (71) for adsorbing moisture in outdoor air;
該吸湿部材 (71)に吸着した水分を脱離させる加熱手段 (72)と、 Heating means (72) for desorbing moisture adsorbed on the moisture absorbing member (71);
該加熱手段 (72)で前記吸湿部材 (71)より脱離させた水蒸気を凝縮させて凝縮水 を生成する凝縮手段 (73)とを備えて!/ヽる Condensing means (73) for condensing water vapor desorbed from the moisture absorbing member (71) by the heating means (72) to generate condensed water!
ことを特徴とする空気調和装置。 An air conditioner characterized by that.
[5] 請求項 3において、 [5] In claim 3,
前記水供給手段 (60)は、前記凝縮水生成手段 (70)で生成した凝縮水とともに前 記室外熱交換器 (51)で発生した凝縮水を洗浄水として前記室内熱交換器 (20)に供
給するように構成されている The water supply means (60) uses the condensed water generated in the outdoor heat exchanger (51) together with the condensed water generated in the condensed water generating means (70) as washing water to the indoor heat exchanger (20). Serving Configured to pay
ことを特徴とする空気調和装置。 An air conditioner characterized by that.
[6] 請求項 1において、 [6] In claim 1,
前記室内熱交換器 (20)で発生した凝縮水を保管する保管タンク (63)を備え、 前記水供給手段 (60)は、前記保管タンク (63)に保管された凝縮水を洗浄水とし て前記室内熱交 (20)に供給するように構成されて!、る A storage tank (63) for storing condensed water generated in the indoor heat exchanger (20) is provided, and the water supply means (60) uses the condensed water stored in the storage tank (63) as washing water. Configured to supply the indoor heat exchange (20)! RU
ことを特徴とする空気調和装置。 An air conditioner characterized by that.
[7] 請求項 1において、 [7] In claim 1,
前記室内熱交翻 (20)は、前記室内機(10)の冷房運転中に、該室内熱交翻 (20)で発生する凝縮水により該室内熱交換器 (20)に付着した塵埃を除去するように 構成される一方、 The indoor heat exchanger (20) removes dust attached to the indoor heat exchanger (20) by the condensed water generated in the indoor heat exchanger (20) during the cooling operation of the indoor unit (10). While configured to
前記水供給手段 (60)は、前記室内機(10)の暖房運転中に、洗浄水により前記室 内熱交 (20)に付着した塵埃を除去するように構成される The water supply means (60) is configured to remove dust adhering to the indoor heat exchanger (20) by washing water during the heating operation of the indoor unit (10).
ことを特徴とする空気調和装置。 An air conditioner characterized by that.
[8] 請求項 1において、 [8] In claim 1,
前記室内熱交換器 (20)の上流側には、放電により活性種を生成する放電手段 (3 0)が配設されている Discharge means (30) for generating active species by discharge is disposed upstream of the indoor heat exchanger (20).
ことを特徴とする空気調和装置。 An air conditioner characterized by that.
[9] 請求項 8において、 [9] In claim 8,
前記放電手段 (30)は、ストリーマ放電を行うように構成されている The discharge means (30) is configured to perform streamer discharge.
ことを特徴とする空気調和装置。 An air conditioner characterized by that.
[10] 請求項 1において、 [10] In claim 1,
前記イオン化手段 (25)は、放電極 (31)と該放電極 (31)に対向する対向極 (32)と を備え、 The ionization means (25) includes a discharge electrode (31) and a counter electrode (32) facing the discharge electrode (31),
前記放電極 (31)及び前記対向極 (32)は、空気流れ方向に略直交する方向に放 電するように配置されて 、る The discharge electrode (31) and the counter electrode (32) are arranged so as to discharge in a direction substantially perpendicular to the air flow direction.
ことを特徴とする空気調和装置。 An air conditioner characterized by that.
[11] 請求項 10において、
前記放電極 (31)は、線状に形成されるとともに面状の前記対向極 (32)と略平行 に配置されている [11] In claim 10, The discharge electrode (31) is formed in a linear shape and is disposed substantially parallel to the planar counter electrode (32).
ことを特徴とする空気調和装置。 An air conditioner characterized by that.
[12] 請求項 1において、 [12] In claim 1,
前記水供給手段 (60)は、 The water supply means (60)
前記洗浄水を保管する保管タンク (63)と、 A storage tank (63) for storing the washing water;
前記洗浄水の流路をなす水搬送配管 (61)と、 A water transfer pipe (61) that forms a flow path of the washing water;
前記保管タンク (63)に保管された前記洗浄水を前記水搬送配管 (61)を通して前 記室内熱交換器 (20)に供給する水搬送ポンプ (62)とを備えて!/、る A water transfer pump (62) for supplying the wash water stored in the storage tank (63) to the indoor heat exchanger (20) through the water transfer pipe (61).
ことを特徴とする空気調和装置。 An air conditioner characterized by that.
[13] 請求項 12において、 [13] In claim 12,
前記水搬送配管 (61)は、供給側先端部がノズル形状に形成される一方、前記洗 浄水の供給方向が変更可能に構成されている The water transfer pipe (61) is configured such that the supply-side tip is formed in a nozzle shape, while the supply direction of the cleaning water is changeable.
ことを特徴とする空気調和装置。
An air conditioner characterized by that.
Applications Claiming Priority (2)
Application Number | Priority Date | Filing Date | Title |
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JP2005379089A JP3979430B2 (en) | 2005-12-28 | 2005-12-28 | Air conditioner |
JP2005-379089 | 2005-12-28 |
Publications (1)
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WO2007074733A1 true WO2007074733A1 (en) | 2007-07-05 |
Family
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Family Applications (1)
Application Number | Title | Priority Date | Filing Date |
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PCT/JP2006/325619 WO2007074733A1 (en) | 2005-12-28 | 2006-12-22 | Air conditioner |
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JP (1) | JP3979430B2 (en) |
WO (1) | WO2007074733A1 (en) |
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JP2007178099A (en) | 2007-07-12 |
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