JP2006138615A - Exhaust heat suppression device of air-cooled cooling apparatus and air-cooled cooling system using the same - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide an exhaust heat suppression device of an air-cooled cooling apparatus easily practically usable at a low cost, and capable of effectively reducing a thermal load on the atmosphere based on the operation of the air-cooled cooling apparatus; and to provide an air-cooled cooling system using it. <P>SOLUTION: This device is adapted to suppress exhaust heat of an air-cooled cooling apparatus equipped with an indoor machine for cooling the air in a room, an outdoor machine for exhausting hot air and a refrigerant system for circulating a refrigerant between the indoor machine and the outdoor machine. The device includes a water evaporation part for evaporating water from a surface by receiving hot air exhausted from the outdoor machine and a water supply part for supplying water to the water evaporation part; the water evaporation part is composed by using, as a main member, a generally tubular evaporation body comprising a passage part for water and a porous water retention part covering its circumference; and the water supply part is connected to the passage part so as to run the water and is so structured that the water is supplied from the passage part to the water retention part and the evaporation of the water is generated on the surface of the water retention part. <P>COPYRIGHT: (C)2006,JPO&NCIPI

Description

  The present invention relates to a technique for suppressing exhaust heat of an air-cooled cooling device including an indoor unit that cools indoor air and an outdoor unit that discharges hot air, by using latent heat of vaporization of water, and the air-cooled cooling device The present invention relates to an exhaust heat suppression apparatus and an air cooling type cooling system using the same.

  Modern urban areas are covered with concrete, asphalt, etc., so they are exposed to harsh thermal environments in summer, and cooling devices are used to ensure comfort. This causes a so-called heat island problem.

  That is, an air-cooled cooling device called a packaged air conditioner or a room air conditioner installed in a general home or office is usually installed indoors, evaporates the refrigerant liquid, and uses the latent heat of vaporization to circulate ambient air, that is, indoor air. An indoor unit that cools, and an outdoor unit that is installed outside and has a compressor that compresses the refrigerant gas and a condenser that cools and compresses the compressed refrigerant gas with outside air, and the outside air that has cooled the condenser, It is discharged as hot air and is one of the main factors that raise the atmospheric temperature. Note that the outside air that cools the refrigerant gas is usually blown toward the condenser by an outdoor fan included in the outdoor unit.

  An approach for reducing the heat load on the atmosphere based on the operation of such an air-cooled cooling device can generally be performed from two directions, one of which is improving the efficiency of the air-cooled cooling device, One of these is removal of heat from the exhausted hot air, and the two techniques are intended for reducing the heat load on the atmosphere by utilizing the latent heat of vaporization of water as intended by the present invention. Technological development from the direction is made.

  That is, first, as a measure for improving the efficiency of an air-cooled cooling device that uses the latent heat of vaporization of water, water is sprayed and sprayed on the surface of the heat transfer tube of a condenser (usually configured with a finned heat transfer tube). Then, water is evaporated on the surface, the cooling capacity of the condenser (referred to as “heat exchanger” etc. in the literature) is improved, the efficiency of the air-cooled cooling device is improved, and as a result, the air is discharged into the atmosphere For example, Patent Document 1 (Cooling Function Improvement Device such as an Air-cooled Cooler), Patent Document 2 (Air Heat Source Cooling Device and Cooling Method Using the Same), Patent Document 3 (Energy Saving) Drain spreader), Patent Document 4 (air-cooled cooling device), and the like.

  In Patent Document 1, Patent Document 3, and Patent Document 4, a technique that uses drainage discharged from an indoor unit ("drain water" or "dehumidified water" depending on literature) as water to be sprayed or sprayed on the surface of the heat transfer tube. Is disclosed. Further, Patent Document 2 discloses means for spraying water on the surface of the heat transfer tube (water sprayer such as a holo-cone type spray nozzle), measured values of outside air temperature and outside air humidity, and water spray at each temperature and humidity input in advance. Based on the data of the optimum amount of water, or based on the detection data of whether or not the water of the water droplet sensor installed at the lower part of the heat transfer tube is dripping, the means for estimating the amount of water evaporation and the adjustment of the opening of the water supply valve And a means for controlling the amount of spray water according to the estimated amount of evaporation is disclosed.

  Patent Document 3 discloses a technique in which drain water is dropped onto a fan that rotates like a windmill with inflow air from an outdoor unit, and is dispersed and dispersed as fine water droplets. Further, in Patent Document 4, when drainage from an indoor unit is used for spraying, a water storage tank (in the literature, “storage tank”) is provided, and this is used as a buffer to cool the air at the highest temperature during the day. It is possible to adopt a mode of operation that increases the amount of water stored in the water storage tank during other time periods, so that wastewater from indoor units is always sprayed. It has been shown that the energy saving effect can be improved compared to the case of doing so.

  By spraying and spraying water on the heat transfer tube surface of these condensers and evaporating the water on the surface, the cooling capacity of the condenser is improved, and the heat load associated with the operation of the air-cooled cooling system is reduced. The technology generally has the problem that scales may be deposited on the surface of the heat transfer tube and the heat exchange capacity may be reduced, and an impurity remover that removes impurities in the spray water is required to prevent this. . In addition, it is usually difficult to spray water evenly on the surface of the heat transfer tube having fins, and there is a problem that it is difficult to obtain the expected effect of improving the cooling capacity.

  In addition, in many cases, the lower part of the place where the outdoor unit is installed has no measures against water, and it is in a situation where water cannot flow down, but the amount of sprayed water should be controlled so that water does not fall down. Has the problem of being extremely difficult. Patent Document 2 discloses a technique for estimating the amount of evaporation and controlling the amount of sprayed water in accordance with the amount of evaporation as described above. Usually, the heat transfer tube is made of metal, and water on the surface of the heat transfer tube having fins is disclosed. The behavior of is very complicated, it is difficult to estimate the amount of evaporation, and it is difficult to control the amount of sprayed water.

  Furthermore, in order to attach a sprinkling pipe, a water storage tank, an impurity remover, etc. as an option to an existing outdoor unit, it is necessary to make significant improvements, and from a cost standpoint, it must be said that the practicality is poor. . That is, such a conventional technique has various problems as described above, and cannot be said to be a technique that can effectively reduce the heat load on the atmosphere based on the operation of the air-cooled cooling device.

  Next, as another technique for improving the efficiency of an air-cooling type cooling device by using the latent heat of vaporization of water, Patent Document 5 (cooler outdoor unit cooling device) uses waste water from an indoor unit. For the purpose of providing a device that increases the heat dissipation effect of the outdoor unit and helps the cooling effect, an outdoor unit cooling device is disclosed in which a cloth is sandwiched and fixed between the frame and the frame and a hook is attached to the upper part of the frame. Yes. Specifically, the drainage hose from the indoor unit is inserted into the installation part, and it is installed on the back of the outdoor unit. The drainage is transmitted to the cloth, and the outdoor unit's wind absorption passes through the wet cloth. Further, there is disclosed a technique for increasing the heat radiation effect of the outdoor unit by cooling the apparatus with latent heat of vaporization and cooling the condenser with the cooled outside air.

  This prior art has a great feature in that the wet air is brought into contact with the outside air to evaporate water on the surface of the cloth and the outside air is cooled by the latent heat of vaporization. In other words, this conventional technique does not directly spray and spray water on the condenser, but makes the surface of the cloth come into contact with the outside air and a cloth that has water absorption and water retention properties and is easy to form a uniform wet surface. There is a great feature in that the outside air is cooled by the latent heat of vaporization caused by the evaporation of the water generated in the above and the heat radiation effect of the outdoor unit is increased by using the cooled outside air.

  With such a configuration, as described above, the problem of scale deposition on the surface of the heat transfer tube, the problem of inhibition of efficiency improvement based on the non-uniformity of dispersion on the surface of the heat transfer tube, the problem of measures for preventing dripping of water, and the existing Cost problems and the like when attached to the outdoor unit as an option can be avoided or reduced.

  However, this conventional technique has the cloth installed on the air suction side, and in this case, the cloth becomes a flow resistance of the air suction, and the existing outdoor fan cannot blow a predetermined amount of outside air to the condenser. is there. As is well known, in the cooling of such a condenser, the flow rate is important together with the outside air temperature, and even if the outside air temperature is lowered, if the outside air flow rate is reduced as a result, the desired heat dissipation effect can be obtained. There is no improvement, and in some cases, the efficiency may decrease. Further, since the airflow of the wind absorption is weakly disturbed, the amount of water evaporation does not increase, which is also an important factor that the efficiency cannot be increased.

  Of course, it is possible to secure a predetermined amount of outdoor air by increasing the size of the outdoor fan, etc., but the remodeling requires a great deal of cost, and the power consumption of the outdoor fan increases, resulting in poor practicality. I must say. In other words, this conventional technique cannot be said to be a technique that can effectively reduce the heat load on the atmosphere based on the operation of the air-cooled cooling device, which can be practically used at low cost.

  Next, another approach for reducing the heat load on the atmosphere based on the operation of the air-cooled air conditioner, that is, a technique for directly removing heat from the discharged hot air using the latent heat of vaporization of water. In principle, this is the same technique as that used in ancient times, which uses cooling by water transpiration or transpiration of plants, but it does not directly improve the efficiency of air-cooled air conditioners. Since it is difficult to realize the reduction of the electricity bill, there are very few disclosed techniques, for example, only disclosed in Patent Document 6 (exhaust air processing device).

  Patent Document 6 aims to provide a device that cools discharged hot air with the latent heat of vaporization of water without increasing the temperature of the outdoor unit. Disclosed is an exhaust air treatment device having a water supply for wetting. Moreover, the processing apparatus which has a fiber body further in the back surface is disclosed, and the processing apparatus using the fiber body which provided the ventilation hole in the center part as a fiber body without ventilation resistance, and processed the fiber body which has many holes, etc. Is disclosed. This device is installed so that the fiber body faces the air outlet of the air conditioner, receives the hot air discharged from the air conditioner, and cools the exhaust air by the latent heat of vaporization caused by the evaporation of water generated on the surface of the fiber body. It is something to try.

  This prior art is a technique in which the “cloth” referred to in Patent Document 5 is installed not on the suction side but on the blowing side, and in this case, the influence of the flow resistance generated in the fiber body on the heat dissipation effect of the condenser is greatly increased. Reduced. In other words, when installed on the blowout side, unless the space between the blowout port and the fiber body is sealed, the flow path to the outside is opened between them, so that the flow resistance generated in the fiber body reaches the condenser. There is almost no influence retroactively. Therefore, according to this prior art, it becomes easy to reduce the heat load on the atmosphere based on the operation of the air-cooled cooling device without substantially affecting the performance of the air-cooled cooling device.

  Also, this prior art makes it possible to evaporate water more effectively than in Patent Document 5, because the higher temperature air after cooling the condenser is brought into contact with water. Furthermore, this apparatus has a very simple configuration, and its manufacture, installation, and operation are relatively simple. Even when this exhaust air treatment apparatus is attached to an existing air-cooling type cooling apparatus, the existing modification is not changed. It is almost unnecessary and can be practically used at low cost.

  However, the prior art disclosed in Patent Document 6 is not satisfactory in the configuration of the fibrous body for retaining water and evaporating it, and the heat load on the atmosphere based on the operation of the air-cooled cooling device is not satisfied. It is not satisfactory as a technology that can be effectively mitigated. That is, in this Patent Document 6, an apparatus having a parabolic antenna-like shape of a fibrous body is illustrated, and in a means for solving the problem, “wet fibrous body generates resistance with a film of water. There are a number of holes in the air ... Some of the hot air from the exhausted air passes through the holes in the fiber body and exits to the back.The remaining hot air passes through the curved surface of the fiber body and exits from the central ventilation hole. In such a configuration, when the hole size and the total area are increased so as not to cause resistance, the hot air passes without effectively contacting the fiber body, and it is difficult for water to evaporate. If the total area is reduced, the hot air that flows out between the blower outlet and the fiber body, that is, the hot air that bypasses the fiber body increases, and in this case, the hot air that contacts the fiber body also decreases. Water evaporation is less likely to occur.

  The effect of the hole size is mentioned above, but the effect will be explained a little. In general, when providing openings in such a fibrous body, when comparing a case with a small number of large holes and a case with a large number of small holes, the case where a small number of large holes are provided even if the entire area of the opening is the same. However, it is easy to pass a fluid such as air, but there is a circumstance that the contact between the gas and the fiber body is reduced.

  In addition, it can be configured that the hot air is sealed between the blowout port and the fiber body so that the hot air does not flow outward, and most of the hot air flows along the curved surface of the fiber body and exits from the central ventilation hole. In this case, the flow resistance generated in the fiber body is remarkably increased, which greatly affects the heat dissipation effect of the condenser. In addition, the sealing of the flow path may require a great deal of cost, including existing modifications, and it must be said that the practicality is poor.

  This prior art also does not give a specific description of the water supply part, but according to the illustrated figure, it consists of a joint from a water pipe and a sprinkling pipe connected to it. It is only attached to the outer edge of the fiber body in the shape of a parabolic antenna. In such a configuration, even if a water-absorbing / water-retaining fiber body is used, water movement in the fiber body is due to capillarity, so the capacity or amount of water movement decreases as the water movement distance in the fiber body increases, In particular, when targeting a large cooling system, it is difficult to supply water so as to maintain appropriate moisture over the entire surface of the fiber body, and as a result, the entire surface of the fiber body can be used effectively. However, it is not satisfactory as a technology that can effectively reduce the heat load on the atmosphere based on the operation of the air-cooled cooling device.

  Although it is not intended to suppress the exhaust heat of the air-cooled cooling device, Patent Document 7 (adsorption refrigerator) is a technique that uses a porous material to increase the evaporation area and efficiently generate cold heat. And an adsorption refrigeration apparatus and its defrosting method). That is, in this document, by providing a wick made of a porous material (felt, wire mesh, sintered metal, etc.) on the inner peripheral surface of the evaporator, the refrigerant liquid rises to the upper part of the evaporator due to the capillary phenomenon of the wick. It is shown that the evaporation area can be increased and cold heat can be generated also in the upper part of the refrigerator compartment. This prior art is an example that generally indicates that a porous material having capillary properties is suitable for constituting the evaporation surface.

  In addition, the present inventors do not intend to directly suppress the exhaust heat of the air-cooling type cooling device, but are concerned with measures against the so-called heat island problem, and a technique that uses evaporative cooling of a porous water-retaining building material. Has been studied for a long time (for example, Non-Patent Document 1). This porous water-holding building material can also be used in the exhaust heat suppression device of the air-cooled cooling device of the present invention.

  The water-retaining building materials used in the study by the present inventors are specifically ceramic tiles mainly made of waste materials of Oya stone used for garden stones, and have a large number of voids of about 10 microns in their interiors. Combines sex and capillary characteristics. For this reason, once water is contained, the water is kept for a long time, and when heated in the water-retained state, the water evaporates, and the temperature rise of the building material is suppressed by the latent heat of vaporization, and heat is taken away from the surrounding air to generate cold air. The water inside the building material is redistributed to the portion near the surface from which moisture has been removed by moisture evaporation due to capillary action.

Japanese Utility Model Publication No. 06-002013 JP 2001-317821 A Japanese Patent Laid-Open No. 2003-042476 JP 2004-190877 A Japanese Utility Model Publication No. 05-054926 JP 2004-150782 A JP 07-004776 A Hanedano and 3 others (Ozaki, Suzuki, Yoshikoshi): Research on thermal environment improvement and power saving in summer using water evaporation, Journal of Japan Society of Civil Engineers, No. 692 / 7-21, pp. 13-20, 2001.11

  The present invention has been made in view of the above-described situation relating to the exhaust heat of an air-cooled cooling apparatus including an indoor unit that cools indoor air and an outdoor unit that discharges hot air, and can be practically used at low cost. An object of the present invention is to provide an exhaust heat suppression device for an air-cooled cooling device and an air-cooled cooling system using the same, which can effectively reduce the heat load on the atmosphere based on the operation of the air-cooled cooling device.

  The present invention employs, as means for achieving the above object, an exhaust heat suppression device for an air-cooled cooling device and an air-cooled cooling system using the same, having the following configuration. That is, the invention of claim 1 is an air-cooling type cooling apparatus including an indoor unit that cools indoor air, an outdoor unit that discharges hot air, and a refrigerant system that circulates refrigerant between the indoor unit and the outdoor unit. An apparatus that suppresses exhaust heat of the water, and includes a water evaporation unit that receives hot air discharged from the outdoor unit and evaporates water from the surface, and a water supply unit that supplies water to the water evaporation unit, The water evaporating part is configured with a substantially tubular evaporator composed of a water passage part and a porous water retaining part covering the periphery thereof as a main member, and the water supply part is connected to the passage part so as to be able to circulate, Water is supplied from the passage portion to the water retaining portion, and water is evaporated on the surface of the water retaining portion.

  The inventions of claim 2 and claim 3 relate to a preferred configuration of the evaporator tube. According to the invention of claim 2, the water passage portion of the evaporator tube is constituted by a conduit, and the conduit is formed around the periphery thereof. A plurality of supply holes for supplying water to the water retention part covering the pipe are provided in the pipe wall, and the invention according to claim 3 is characterized in that the evaporation pipe forms a water passage part generally having a central part as a cavity. An exhaust heat suppression device for an air-cooling type cooling device, which is a substantially tubular evaporator composed of a porous water retaining portion.

  The invention of claim 4 relates to a preferred material form of the water retaining portion, wherein the water retaining portion is formed of at least one of felt, wire mesh, sintered metal, and ceramics.

  According to a fifth aspect of the present invention, there is provided a preferred shape of the water retaining portion, wherein the water retaining portion has a fin-like projecting surface for increasing a water evaporation surface.

  The inventions of claims 6 and 7 relate to a preferred configuration of the evaporation pipe in the water evaporation section, and the invention of claim 6 is characterized in that the water evaporation section includes an exhaust surface for discharging hot air of the outdoor unit. A plurality of the evaporation pipes are arranged at a predetermined interval substantially in parallel, and the invention according to claim 7 is characterized in that the water evaporation section includes an exhaust surface for discharging hot air of the outdoor unit. The evaporation tubes are arranged so as to face each other in a spiral or spiral shape.

  The invention according to claim 8 relates to a preferred outer shape of the water evaporation section, and the water evaporation section is disposed substantially facing an exhaust surface for discharging hot air of the outdoor unit, and viewed from the exhaust surface side. The outer shape is generally circular or square according to the outer shape of the exhaust surface.

  The invention according to claim 9 relates to a configuration of the water supply unit, wherein the water supply unit has a water storage tank, and the water in the water storage tank naturally flows into the passage portion of the evaporation pipe. It is possible to provide an exhaust heat suppression device for an air-cooled air conditioner that is connected to the passage portion.

  The invention of claim 10 is the air-cooled cooling system of the present invention, an indoor unit that cools indoor air, an outdoor unit that discharges hot air, and a refrigerant system that circulates refrigerant between the indoor unit and the outdoor unit An air cooling type cooling system including an air cooling type cooling device comprising a water evaporation unit and a water supply unit, wherein the water evaporation unit is the outdoor unit. It is arranged so as to face the exhaust surface that discharges the hot air of the air, so that the hot air discharged from the outdoor unit is received and water is evaporated from the water evaporating unit, and the exhaust heat of the air-cooled cooling device is suppressed. It is characterized by that.

  As described in detail below, the present invention provides an exhaust heat suppression device for an air-cooled cooling device that can effectively reduce the heat load on the atmosphere based on the operation of the air-cooled cooling device that can be practically used at low cost. And an air cooling system using the same can be provided. Therefore, the present invention can contribute to solving the heat island problem occurring in urban areas, and its industrial utility value is extremely high.

  Hereinafter, preferred embodiments of the present invention will be described. In the following, as an air-cooled cooling device, typically, a device that uses the condensation and evaporation of a refrigerant, that is, a room to be cooled, evaporates the refrigerant liquid, and the surrounding or indoor An indoor unit that cools the air, a compressor that compresses the refrigerant gas, a condenser that cools and compresses the compressed refrigerant gas with outside air, and an outdoor fan that blows outside air to the condenser Although the air-cooled cooling device provided with the outdoor unit will be described, the exhaust heat suppression device of the present invention is not limited to this, and any air-cooled cooling device that discharges hot air can be applied without any limitation.

  For example, the present invention relates to an apparatus that does not involve refrigerant condensation / evaporation, that is, an indoor unit that adiabatically expands high-pressure / normal-temperature refrigerant gas and cools the surrounding air, that is, indoor air, using the low-pressure / low-temperature refrigerant gas, and refrigerant gas A heat exchanger that compresses the compressed high-pressure / high-temperature refrigerant gas with the outside air to form a high-pressure / normal temperature refrigerant gas, and an outdoor unit that has an outdoor fan that blows outside air to the heat exchanger It can also be applied to other air-cooled cooling devices.

  Alternatively, the present invention can also be applied to an air-cooled cooling device using an adsorption thermal cycle. As is well known, the adsorption heat cycle uses adsorption / desorption phenomena involving heat transfer between solid and gas in the heat cycle, and heats the adsorbent (eg, silica gel, zeolite, etc.) with an external heat source. A desorption process for desorbing a refrigerant (for example, alcohol, water, etc.), a cooling process for cooling the adsorbent to a low temperature (usually near normal temperature), and an adsorption process for adsorbing refrigerant vapor to the adsorbent at the low temperature. In the air-cooled cooling apparatus using this adsorption-type thermal cycle, hot air is discharged in the cooling process. The present invention can be applied without any limitation as long as it is an air-cooled cooling device that discharges such hot air.

  Hereinafter, preferred embodiments of the present invention will be specifically described. In the present invention, in order to realize an exhaust heat suppression device for an air-cooling type cooling device that can be practically used at low cost, water evaporation occurs on the surface of the heat transfer tube of the condenser as in the above-mentioned Patent Document 6. Instead of the evaporation surface, the condenser is cooled, and as a result, the evaporation surface that receives the hot air exhausted from the outdoor unit at a high temperature and evaporates water from the surface is configured separately. The evaporation surface is made of a porous water retaining material such as a “fiber”.

  The “porous water-retaining material” as used in the present invention has a large number of voids, and due to the capillary characteristics of the voids, water is sucked from the outside, held inside, and redistributed inside. It is a generic term for materials that can be used, and includes and includes “fabric” in Patent Document 5 and “fiber body” in Patent Document 6. The “surface” for evaporating water is a surface where water evaporates, and does not mean a physical surface of the porous water retention material. That is, when water is suitably supplied, evaporation occurs on the physical surface of the water retaining material, which is a preferred form in the practice of the invention, but when the water supply is low, Evaporation occurs in the vicinity of the inside as well as the physical surface of the water-holding material, and the present invention does not exclude such a form.

  With this configuration, as described above, problems such as scale deposition on the surface of the heat transfer tube can be avoided, and when the exhaust heat suppression device of the present invention is attached to the existing air-cooled cooling device, the existing change is not This exhaust heat suppression device is almost unnecessary, has a very simple configuration, is relatively easy to manufacture, install, and operates, and can be practically used at low cost.

  The present invention further provides a water evaporating unit including an evaporating surface of the water in order to realize an exhaust heat suppression device capable of effectively reducing the heat load on the atmosphere based on the operation of the air cooling type cooling device. And a substantially tubular evaporation body composed of a porous water retaining portion covering the periphery thereof as a main member.

  By adopting such a water evaporation section, the water evaporation surface can be enlarged under the constraint that the flow resistance against hot air is extremely small, and the heat transfer performance between the evaporation surface and hot air is improved. can do. In other words, when a relatively high heat transfer performance is to be obtained under the constraint of reducing the flow pressure loss, the flow is applied perpendicularly to the axis of the group of circular tubes placed in parallel. It is a well-known fact that a tubular heat exchanger is effective. Further, it is known that a staggered arrangement and a grid arrangement are effective as the arrangement of the circular tube group.

  This is mainly due to the columnar shape of the outer shape, which can suppress the shielding of the flow, and because of the non-streamline cylindrical shape, the heat transfer performance is improved due to the separation of the boundary layer on the heat transfer surface. The heat flow in the downstream circular pipe is promoted by increasing the flow, the turbulent flow formed by the flow separation in the upstream circular pipe hits the downstream circular pipe, and the heat transfer area This is an effect that can be increased to some extent. That is, in the present invention, the conventional knowledge about the shape and arrangement of the tubular heat exchanger is applied to the shape and arrangement of the evaporator according to the present invention.

  In the present invention, the term “substantially tubular” as the shape of the evaporator is not limited to a circular outer shape, but an outer shape such as an ellipse or a rectangular corner is curved. A non-streamline shape is a generic name that means that the boundary layer easily peels off at the heat transfer surface when hot air is applied at right angles to its axis, and the flow resistance is suppressed because the flow is not shielded so much.

  Further, the evaporation pipe constituting the water evaporation part as a main member is like a generally tubular member in which the periphery of the “watering pipe” referred to in the prior art is covered with a porous water retaining part. The distance between the pipe (the “passage section” in the present invention) and the water evaporation surface (the outer surface of the evaporation pipe) is set appropriately. By deciding to be supplied to the evaporation surface and configuring the water evaporation part using it as a main member, even when targeting a large cooling system in particular, moderate moisture is maintained over the entire evaporation surface. Thus, water can be supplied and the entire surface of the evaporation surface can be used effectively.

  As described above, the exhaust heat suppression device of the present invention effectively reduces the heat load on the atmosphere based on the operation of the air-cooled cooling device by adopting such a configuration as the water evaporation unit including the water evaporation surface. can do.

  That is, the exhaust heat suppression device of the present invention includes an indoor unit that cools indoor air, an outdoor unit that discharges hot air, and an air-cooled cooling system that includes a refrigerant system that circulates refrigerant between the indoor unit and the outdoor unit. A device that suppresses exhaust heat of the device, and includes a water evaporation unit that receives hot air discharged from an outdoor unit and evaporates water from the surface, and a water supply unit that supplies water to the water evaporation unit. The main part is composed of a substantially tubular evaporator composed of a water passage part and a porous water retention part covering the periphery thereof, and the water supply part is connected to the passage part so as to be able to circulate. In the basic embodiment, water is supplied to the part and water is evaporated on the surface of the water holding part.

  Next, the evaporation pipe which is a main member constituting the water evaporation unit will be described. Although the present invention is not particularly limited as a specific configuration of the evaporation pipe, for example, a water passage part of the evaporation pipe is provided with a supply hole for supplying water to a water retaining part covering the periphery. It can be configured as a plurality of conduits on the wall. As described above, this is an embodiment that is substantially the same as the form in which the periphery of the “water sprinkling pipe” in the prior art is covered with a porous water retaining portion to form a generally tubular member. This is a preferred form when using a “body” or the like.

  In addition, as the conduit, for example, the structure shall be detachably closed with a screw cap so that the conduit can be cleaned, and the material is resistant to the corrosive action of water such as copper alloy, hard vinyl tube, It is assumed that it is easy to bend, and the dimensions and shape including the supply hole are appropriately selected according to the capacity of the air cooling type cooling device and the specific configuration of the water evaporation section.

  Another configuration of the evaporation pipe can also be implemented as a form in which a water passage portion is formed using only a water retaining member without using a conduit which is a separate member. That is, the present invention can be implemented as a substantially tubular evaporator composed of a porous water-retaining part in which a water passage part is formed with the central part as a cavity. This can be done when, for example, mass production of evaporation pipes for large-scale cooling systems by omitting the pipes with holes for water supply on the pipe wall to loosen the water supply limit and simplifying the manufacturing process. This is a preferred form.

  Next, the water retention part which comprises the evaporation pipe is demonstrated. As described above, the “porous water-retaining material” in the present invention has a large number of voids, and, due to the capillary characteristics of the voids, sucks water from the outside, holds it inside, and recycles it inside. It is a general term for materials that can be distributed, and the water retention part of the present invention uses the porous water retention material, and preferred materials include, for example, felt, wire mesh, sintered metal, ceramics, etc. Is mentioned. The “felt” is a general term for materials using a so-called “fiber” -like material, and includes “cloth” in Patent Document 5, “fiber” in Patent Document 6, and the like.

  The water retention part can be formed using a single water retention material, but can also be formed using a combination of a plurality of water retention materials. For example, first, an inner water retaining portion having a water passage portion is formed of ceramics, and then an outer water retaining portion is formed by covering the felt to form a water retaining portion having a double structure. You can also.

  As the shape of the water retaining portion, in addition to a generally tubular shape, in order to increase the evaporation surface of water based on a similar idea to a well-known finned heat transfer tube, the generally tubular water retaining portion has a fin shape at a predetermined interval. It can also be implemented as a form having a protruding surface. The fin-like projection surface can be provided, for example, in the circumferential direction, the axial direction, or the spiral direction, but is preferably provided in the circumferential direction due to flow resistance and flexibility. The tubular portion and the fin portion are usually made of the same material, particularly preferably manufactured as a single body, but may be made of different materials.

  Next, a specific form of the arrangement configuration of the evaporation pipe which is a main member of the water evaporation unit will be described. The arrangement configuration of the evaporation pipes can be configured, for example, by arranging a plurality of evaporation pipes at a predetermined interval substantially in parallel with the exhaust surface for discharging the hot air of the outdoor unit. That is, for example, a plurality of columnar evaporating tubes can be arranged upright at an appropriate interval vertically from an axial tube arranged at the bottom, substantially parallel to the exhaust surface for discharging hot air from the outdoor unit, The arrangement of the plurality of evaporator tubes is not intended to limit the present invention, but may be implemented in the form of a linear array, a zigzag array, a grid array, or the like, such as the multi-tube heat exchanger described above. it can.

  At that time, the installation length, installation width, and installation height of the multiple evaporation pipes are determined from the exhaust surface according to the shape of the exhaust surface of the target outdoor unit and the installation distance of the exhaust surface and the exhaust heat suppression device. It is preferable to set appropriately so that the discharged hot air can be received efficiently. In addition, the evaporation pipe can be configured to be arranged in a horizontal or inclined manner, in addition to a vertical configuration.

  The arrangement of the evaporation pipes in the water evaporation section can also be constituted by arranging the evaporation pipes in a spiral shape or a spiral shape so as to substantially face the exhaust surface for discharging the hot air of the outdoor unit. It is also possible to arrange a plurality of such spiral or spiral evaporator tubes at predetermined intervals in the hot air flow direction. The configuration in which the evaporator tubes are arranged in a spiral shape or a spiral shape is a preferred embodiment particularly when the shape of the exhaust surface of the target outdoor unit is circular. Note that the evaporation tube is supported by an installed support as appropriate.

  Next, a preferable external form of the water evaporation unit will be described. The outer shape of the water evaporation section is not intended to limit the present invention, but in order to efficiently receive hot air discharged from the exhaust surface of the outdoor unit, in particular, the outer shape viewed from the exhaust surface side. Is preferably implemented as a generally circular or square shape in accordance with the outer shape of the exhaust surface. In addition, when using the spiral or spiral evaporator tube, if the outer surface of the outdoor unit has a rectangular shape, the deformed spiral or spiral evaporator tube composed of a straight portion and a curved portion is used. It is effective to implement as a form.

  Next, the configuration of the water supply unit will be described. This water supply unit is included in the exhaust heat suppression device, is connected to the passage portion of the evaporation pipe so as to be circulated, and supplies water for evaporation thereto. It is not limited at all. That is, as the water, tap water, waste water discharged from indoor units, rain water, etc. can be used alone or in combination, and the water supply unit specifically matches the form of the water used. It is configured appropriately.

  In particular, from the viewpoint of cost, it is preferable to use drainage or rainwater discharged from the indoor unit, and it is preferable that the water can be supplied without a water pump or the like. As a part, for example, a storage tank that receives the drainage and rainwater and stores it is provided, and the water tank is arranged so that the water in the storage tank can naturally flow into the passage part of the evaporation pipe, and connected to the passage part. Can be implemented.

  Further, the exhaust heat suppression device of the present invention connects the water supply unit to a water system having a pressure equal to or higher than the atmospheric pressure, and is provided with a water supply valve for controlling the amount of water supply in the water supply unit. Based on the meteorological data including the outside air temperature and outside air humidity and the relational data indicating the relationship between the temperature etc. inputted in advance and the amount of water evaporation, or a water drop sensor installed at a predetermined position of the water evaporating unit, etc. Based on the detected data, a controller for controlling the water supply amount by adjusting the opening of the water supply valve or the like may be provided, and the water supply amount may be appropriately controlled based on the actual measurement data.

  Next, an embodiment of the air cooling type cooling system of the present invention will be described. That is, an air-cooled cooling system of the present invention includes an indoor unit that cools indoor air, an outdoor unit that discharges hot air, and a refrigerant system that circulates refrigerant between the indoor unit and the outdoor unit. A system including a device, as described in detail above, the exhaust heat suppression device for an air-cooled cooling device according to the present invention having a water evaporation unit and a water supply unit. The embodiment is arranged so as to face the exhaust surface substantially so that water is evaporated from the water evaporation section by receiving the hot air discharged from the outdoor unit. Heat can be suppressed.

  As described above, the air-cooling type cooling device typically includes an indoor unit that evaporates the refrigerant liquid and cools the surrounding air, that is, indoor air, by its latent heat of vaporization, a compressor that compresses the refrigerant gas, and a compressed refrigerant. An air-cooled air conditioner equipped with an outdoor unit having a condenser that cools and condenses the gas with outside air is included, but not limited to this, the high-pressure / normal temperature refrigerant gas is adiabatically expanded and the low-pressure / low-temperature refrigerant gas An air-cooled type equipped with an indoor unit that cools ambient air, that is, indoor air, a compressor that compresses the refrigerant gas, and an outdoor unit that has a heat exchanger that cools the compressed refrigerant gas with the outside air to form a high-pressure / normal temperature refrigerant gas The present invention can be applied without any limitation as long as it is an air-cooled cooling device that discharges hot air, such as a cooling device or an air-cooled cooling device using an adsorption heat cycle.

  In implementing the air-cooled cooling system of the present invention, the temperature of the air discharged from the outdoor unit and cooled by the exhaust heat suppression device is lower than the temperature of the surrounding air, or the surrounding air is generated with water vapor generated by evaporation. When the air is cooled, the cooled air drifts to the surrounding low space due to the difference in specific gravity. Therefore, by using this actively for cooling the condenser of the outdoor unit, the air-cooled air conditioner Power consumption can be reduced.

  Specifically, for example, by surrounding the outdoor unit and the exhaust heat suppression device with a partition or the like, the cooled low-temperature air drifts in a low place therein, and it is blown toward the condenser by the outdoor fan. In this way, the power consumption of the air-cooled cooling device can be reduced.

  As described above in detail, the present invention separately forms an evaporation surface that evaporates water from the surface by receiving hot air discharged from the outdoor unit of the air-cooling type cooling device, and the evaporation surface is porous. Further, the water evaporation part including the evaporation surface is constituted by a substantially tubular evaporation body composed of a water passage part and a porous water holding part covering the periphery thereof as a main member. Therefore, it is possible to effectively reduce the heat load on the atmosphere based on the operation of the air-cooled cooling device that can be practically used at low cost, and the exhaust heat suppression device of the air-cooled cooling device and the air-cooled cooling system using the same Can be provided.

  Hereinafter, the present invention will be described more specifically with reference to examples. As an embodiment of the present invention, first, a specific configuration example of an evaporation pipe which is a main member constituting a water evaporation section of an air-cooled cooling device of the present invention will be described.

  FIG. 1 is a first embodiment showing a configuration of a substantially tubular evaporator composed of a water passage portion and a porous water retention portion covering the periphery of the water passage portion. It is a conceptual diagram which shows the structure of the evaporation pipe | tube made into the pipe | tube which has the supply hole for supplying water to a water retention part in the pipe wall, (a) is a cross section, (b) is a 2nd figure which shows a side surface. In addition, sectional drawing (a) is an AA arrow view of a side view (b). In FIG. 1, 10 is a conduit forming a water passage portion, 20 is a porous water retaining portion made of a porous member covering the periphery of the conduit 10, and 101 is provided in a plurality through the tube wall of the conduit 10. The water supply hole 102 is an outer surface of the conduit that refers to the outer surface of the conduit 10, and 103 is an inner surface of the conduit that refers to the inner surface of the conduit 10.

  With such a configuration, resistance to the hot air flow of the exhaust can be suppressed, heat transfer performance can be improved, and water to be evaporated can be easily replenished, so that efficient exhaust heat suppression can be realized. This is because, as described above, the columnar outer shape can suppress the resistance due to the flow shielding, and the non-streamlined outer shape makes it easy for the boundary layer to peel off and to easily generate turbulence near the evaporation tube surface. This is because the transmission performance can be increased and the moisture replenishment can be facilitated by shortening the distance of moisture movement by the capillary action in the porous water retaining material.

  As described above, the structure of the evaporation pipe according to this embodiment is suitable for a form in which the conduit 10 is made of a copper alloy or the like and the porous water retaining part 20 is made of felt or the like. In addition, the dimension and shape including the water supply hole 101 are appropriately selected and implemented in accordance with the capability of the air-cooling type cooling device and the specific configuration of the water evaporation unit.

  FIG. 2 is a second embodiment showing a configuration of a substantially tubular evaporator composed of a water passage portion and a porous water retaining portion covering the periphery of the water passage portion. It is a conceptual diagram which shows the structure of the evaporation pipe which consists of a porous water retention part which formed the channel | path part of water by making a center part a cavity, (a) is a cross-section, (b) is a 2nd figure which shows a side surface. In addition, sectional drawing (a) is a BB arrow line view of a side view (b). In FIG. 2, reference numeral 21 denotes a porous water retaining portion made of a porous member having a water passage portion having a substantially central portion as a cavity.

  As described above, the configuration of the evaporator tube according to this embodiment is a suitable form when mass-producing evaporator tubes for large cooling systems.

  FIG. 3 is a third embodiment showing a configuration of a substantially tubular evaporator composed of a water passage portion and a porous water retaining portion covering the periphery of the water passage portion, and is based on a similar idea to a finned heat transfer tube, It is a conceptual diagram which shows the structure of the evaporation pipe which has a fin-shaped projection surface in the predetermined space | interval in the substantially tubular water retention part in order to increase the evaporation surface of water, (a) is a cross section, (b) is a side surface. FIG. In addition, sectional drawing (a) is CC arrow line view of a side view (b). In FIG. 3, the same reference numerals as those in FIG. 1 denote the same reference numerals, 10 is a conduit that forms a water passage, 22 is a porous water retaining portion made of a porous member that covers the periphery of the conduit 10, and 101 is a conduit 10. A plurality of water supply holes penetrating through the pipe wall, 102 is an outer surface of the conduit that is the outer surface of the conduit 10, 103 is an inner surface of the conduit that is the inner surface of the conduit 10, and 201 is a predetermined distance from the porous water retaining portion 22. The fin-like projecting surface provided in step 1 is a fin made of the same material as the porous water retaining portion 22.

  The fin-like projection surface of this embodiment is provided in the circumferential direction, but is not limited to this, and is provided in the axial direction or the spiral direction so as not to resist the flow of hot air in the exhaust. You can also. Moreover, although the tubular part and the fin part of this embodiment are manufactured as one body with the same material, they can be made of different materials, for example, the fin part is felt, and it receives the wind and turns. It can also be implemented as a form that promotes evaporation of water.

  Next, a specific configuration example of the arrangement of the evaporation pipes constituting the water evaporation section of the air-cooled cooling device of the present invention will be described.

  FIG. 4 is a fourth embodiment of the present invention showing the arrangement configuration of the evaporation pipes constituting the water evaporation section, and is substantially parallel to the exhaust surface for discharging the hot air of the outdoor unit, and the outer shape is a columnar array. It is a conceptual diagram which shows the arrangement configuration of an evaporation pipe comprised by arranging a plurality of the evaporation pipes in an upright manner, (a) is a two-view diagram showing an elevation surface and (b) a plane. In FIG. 4, 30 is a porous evaporator whose outer shape is a columnar evaporation tube, and 40 is an outdoor unit of an air-cooling type cooling device having an exhaust surface on the right side for discharging the hot air.

  With such a configuration, the flow of exhaust gas is disturbed in the front porous evaporator 30, and when this disturbed flow hits the rear porous evaporator 30, the disturbance on the surface of the rear porous evaporator 30 is disturbed. This action has a secondary effect of promoting moisture evaporation.

  As described above, the arrangement configuration of the evaporation tubes using the columnar evaporation tubes can be a staggered arrangement or a linear arrangement in addition to the grid arrangement according to the fourth embodiment. In addition to the vertical configuration according to the embodiment, it may be arranged horizontally or inclined.

  FIG. 5 is a fifth embodiment of the present invention showing the arrangement configuration of the evaporation pipes constituting the water evaporation section, generally facing the exhaust surface for discharging the hot air of the outdoor unit, and making the evaporation tubes spiral. It is a conceptual diagram which shows the arrangement configuration of the evaporation pipe | tube arrange | positioned and comprised, (a) is a front view, (b) is a 2nd figure which shows a side surface. In FIG. 5, the same reference numerals as in FIG. 4 denote the same reference numerals, 31 is a porous evaporator whose outer shape is a spiral evaporation tube, 40 is an outdoor unit of an air-cooled cooling device, 401 is a circular exhaust of the outdoor unit 40 It is the outer edge of the exhaust part of the surface.

  This corresponds suitably when the exhaust surface is circular, for example. What is necessary is just to arrange | position according to the shape of an exhaust surface, and when it is desirable to comprise with one evaporation pipe according to the condition of the field, it can use suitably.

  As described above, the arrangement configuration of the evaporation tubes using the curved evaporation tubes may be a spiral arrangement or the like in addition to the spiral arrangement according to the fifth embodiment. It is also possible to arrange and configure a plurality of layers at predetermined intervals in the flow direction.

  Next, the configuration of the water supply unit of the air-cooled cooling device of the present invention, which is included in the exhaust heat suppression device and is connected to the passage portion of the evaporation pipe so as to be circulated and supplies water for evaporation, is specifically described. A simple configuration example will be described.

  FIG. 6 is a sixth embodiment of the present invention showing the configuration of the water supply unit. In this example, the water supply to the water evaporation unit of Example 5 is taken as an example, and is freely placed at a position higher than the porous evaporator to be supplied. It is the conceptual diagram seen from the front which shows the structure of the water supply part which comprised the water storage tank so that it might have a water surface, and was comprised so that water might be guide | induced to a water evaporation part from now on by a water supply pipe.

  In FIG. 6, the same reference numerals as in FIG. 5 denote the same reference numerals, 31 denotes a porous evaporator whose outer shape is a spiral evaporation tube, 40 denotes an outdoor unit of an air-cooled cooling device, and 50 denotes a porous evaporation to be supplied with water. A water storage tank 60 arranged and configured to have a free water surface at a position higher than the body 31, a water supply pipe 60 arranged and configured so that the water in the water storage tank 50 flows down naturally and is supplied to the porous evaporator 31, 70 Is a water supply valve for adjusting the amount of water supplied by the natural flow, and 401 is the outer edge of the exhaust portion of the circular exhaust surface of the outdoor unit 40. In addition, although the illustration of the water in the water storage tank 50 is omitted, the waste water discharged from the indoor unit and rainwater are used in combination for cost reasons.

  According to the configuration of the sixth embodiment, it is possible to configure an efficient system that can supply water without requiring a water pump or the like, that is, without requiring power consumption or the like.

  As a configuration of the water supply unit, in addition to Example 6, the water supply unit is connected to a water system having a pressure equal to or higher than atmospheric pressure, for example, tap water, and a water supply valve for controlling the amount of water supply is provided in the water supply unit. Detection based on meteorological data including the outside air temperature and outside air humidity and relationship data indicating the relationship between the temperature and the like input in advance and the amount of water evaporation, or detection by a water drop sensor or the like installed at a predetermined position of the water evaporation unit A controller for controlling the water supply amount by adjusting the opening of the water supply valve based on the data may be provided, and the water supply amount may be appropriately controlled based on the actual measurement data.

  As mentioned above, although the Example of this invention was described, it is clear that various changes may be made to the form and detail, without deviating from the spirit and scope of this invention prescribed | regulated by the claim. .

  For example, in the embodiment, water is supplied to the evaporation pipes from below, but water may be supplied from the side, or a header is provided on the upper part of the evaporation pipes, and then naturally flows down to the respective evaporation pipes. The method of supplying water to the evaporation pipe does not limit the present invention.

It is the 1st example which shows the composition of the approximately tubular evaporation object which consists of a water passage part and a porous water retention part which coats the circumference, Comprising: It is a conceptual diagram which shows the structure of the evaporation pipe | tube used as the conduit | pipe which has a plurality of supply holes for supplying the pipe | tube in a pipe wall, (a) is a cross section, (b) is a 2nd figure which shows a side surface. It is the 2nd example which shows the composition of the approximately tubular evaporation object which consists of the water passage part and the porous water retention part which coats the circumference, Comprising: The pipe which is another member is not used but it is hollow in the central part. It is a conceptual diagram which shows the structure of the evaporation pipe which consists of a porous water holding part which formed the channel | path part of water as (a) is a cross section, (b) is a 2nd figure which shows a side surface. It is a third embodiment showing the configuration of a substantially tubular evaporator composed of a water passage part and a porous water retaining part covering the periphery of the water passage part. FIG. 2 is a conceptual diagram showing a configuration of an evaporation pipe having fin-shaped projecting surfaces at a predetermined interval in the generally tubular water retaining portion, in which (a) is a sectional view and (b) is a two-side view showing a side surface. It is. In the fourth embodiment of the present invention showing the arrangement of the evaporation pipes constituting the water evaporation section, an evaporation pipe having a columnar outer shape in parallel with the exhaust surface for discharging hot air from the outdoor unit is arranged. It is a conceptual diagram which shows the arrangement configuration of the evaporation pipe | tube arrange | positioned and arranged in multiple numbers, (a) is a 2nd figure which shows a standing surface and (b) shows a plane. The fifth embodiment of the present invention showing the arrangement of the evaporation pipes constituting the water evaporation section, generally facing the exhaust surface for discharging the hot air of the outdoor unit, and having the evaporation pipes arranged in a spiral shape It is a conceptual diagram which shows the arrangement configuration of an evaporation pipe | tube, (a) is a 2nd figure which shows an elevation and (b) shows a plane. In the sixth embodiment of the present invention showing the configuration of the water supply unit, the water supply to the water evaporation unit of Example 5 is taken as an example, and the free water surface is provided at a position higher than the porous evaporator to be supplied with water. It is the conceptual diagram seen from the front which shows the structure of the water supply part which comprised so that a water storage tank might be arrange | positioned and water might be guide | induced to a water evaporation part by a water supply pipe from now on.

Explanation of symbols

10 Conduit
20, 21, 22 Porous water retaining part 30, 31 Porous evaporator 40 Outdoor unit 50 Water tank 60 Water supply pipe 70 Water supply valve 101 Water supply hole 102 Conduit outer surface 103 Conduit inner surface 201 Fin 401 Exhaust part outer edge

Claims (10)

  An apparatus that suppresses exhaust heat of an air-cooled cooling device that includes an indoor unit that cools indoor air, an outdoor unit that discharges hot air, and a refrigerant system that circulates refrigerant between the indoor unit and the outdoor unit. A water evaporating unit that evaporates water from the surface by receiving hot air discharged from the outdoor unit, and a water supply unit that supplies water to the water evaporating unit, the water evaporating unit being a water passage unit And a porous water-retaining part covering the periphery thereof, a substantially tubular evaporator (hereinafter, this “tubular evaporator” is referred to as “evaporation pipe”) as a main member, The exhaust heat of the air-cooled cooling device is connected to the passage portion so as to be able to flow, and is configured such that water is supplied from the passage portion to the water retaining portion and water is evaporated on the surface of the water retaining portion. Suppression device.   The water passage portion of the evaporation pipe is constituted by a conduit, and the conduit has a plurality of supply holes in the tube wall for supplying water to the water retention portion covering the periphery thereof. The exhaust heat suppression device of the air-cooling type cooling device described.   2. The exhaust heat suppression of an air-cooled air conditioner according to claim 1, wherein the evaporator tube is a substantially tubular evaporator composed of a porous water retaining part having a water passage part with a central part as a cavity. apparatus.   2. The exhaust heat suppression device for an air-cooled air conditioner according to claim 1, wherein the water retaining portion is formed of at least one of felt, wire mesh, sintered metal, and ceramics.   5. The exhaust heat suppression device for an air-cooled cooling device according to claim 1, wherein the water retaining portion has a fin-like projecting surface for increasing a water evaporation surface.   6. The water evaporation section is configured by arranging a plurality of the evaporation pipes at a predetermined interval substantially in parallel with an exhaust surface for discharging hot air from the outdoor unit. The exhaust heat suppression device of the air-cooling type cooling device described.   The said water evaporation part is substantially comprised facing the exhaust surface which discharges the hot air of the said outdoor unit, and arrange | positions the said evaporation pipe in the shape of a spiral or a spiral, The structure is characterized by the above-mentioned. 5. An exhaust heat suppression device for an air-cooled air conditioner according to 5.   The water evaporation section is disposed substantially facing the exhaust surface for discharging hot air of the outdoor unit, and its outer shape viewed from the exhaust surface side is substantially circular or square according to the outer shape of the exhaust surface. The exhaust heat suppression device for an air-cooled cooling device according to any one of claims 1 to 7.   The water supply section has a water storage tank, and the water storage tank is connected to the passage section so that water in the water storage tank can naturally flow into the passage section of the evaporation pipe. The exhaust heat suppression device for an air-cooled cooling device according to any one of claims 1 to 8.   An air cooling system including an air cooling system including an indoor unit that cools indoor air, an outdoor unit that discharges hot air, and a refrigerant system that circulates refrigerant between the indoor unit and the outdoor unit. The exhaust heat suppression device for an air-cooled cooling device according to claim 1, comprising a water evaporation portion and a water supply portion, the water evaporation portion generally faces an exhaust surface from which hot air of the outdoor unit is discharged. An air-cooled cooling system configured to receive the hot air discharged from the outdoor unit and to evaporate water from the water evaporation unit, thereby suppressing exhaust heat of the air-cooled cooling device.

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