KR20110106961A - Apparatus for cooling industrial water - Google Patents

Abstract

The present invention provides a case in which a plurality of air inlets for sucking air from the outside are formed at a lower side, an inlet valve formed at one side of the case, and which industrial water is introduced from the outside, and industrial water introduced through the inlet valve. A coil part to be circulated, a discharge valve formed at the other side of the case and discharging industrial water having passed through the coil part, and formed inside the case and formed at an upper side of the coil part to provide cooling water to the coil part. A cooling unit comprising a plurality of injection nozzles for injecting, and an injection pump for supplying cooling water to the injection nozzles, a condensation unit formed above the coil unit, and condensing the water vapor neutralized with the cooling water injected into the coil unit; Is formed above the condensation unit, the outside air sucked from the air inlet of the case passes through the coil unit Is formed of a fan and, the lower side of the coil for discharging to the outside, and starts an industrial water cooling system, comprising a storage tank for storing a certain amount of the sprayed cooling water from the cooling parts of the spray nozzle. According to the present invention, the industrial water can be cooled quickly and efficiently by the air cooling type by the fan and the water cooling type by the cooling unit, and the discharge of the high temperature steam generated during the cooling of the industrial water can be minimized, The cooling water used can be recycled and the cooling water can be efficiently used.

Description

Apparatus for Cooling Industrial Water

The present invention relates to an industrial water cooling device, and more particularly, to an industrial water cooling device capable of further improving cooling efficiency by reusing cooling water used for cooling industrial water while cooling industrial water quickly and efficiently. .

As is well known, various industrial waters are utilized in industrial sites. When the industrial water is changed from low temperature to high temperature during use in the field, it does not function properly as industrial water. Accordingly, an industrial water cooling device that makes it possible to cool high-temperature industrial water again to a low temperature is widely used.

However, the conventional industrial water cooling device has a problem in that the cooling efficiency is lowered because the industrial water is cooled by selecting one of air cooling or water cooling. In addition, due to the water vapor generated during the cooling of the industrial water, corrosion occurs, it is difficult to continue using, there was a problem that the cooling water used for cooling the industrial water is unnecessary waste.

Accordingly, the present invention has been made to solve the above-mentioned conventional problems, and industrial water cooling which can further improve the cooling efficiency by reusing cooling water used for cooling industrial water while cooling industrial water quickly and efficiently. It is an object to provide a device.

In order to achieve the above object, according to a preferred embodiment of the present invention, a case in which a plurality of air intake ports for suctioning air from the outside is formed on the lower side, and the inlet is formed on one side of the case, the industrial water is introduced from the outside A valve, a coil portion for distributing industrial water introduced through the inlet valve, a discharge valve formed at the other side of the case and discharging industrial water passing through the coil portion, and formed inside the case, A cooling part formed on the coil part, the cooling part including a plurality of injection nozzles for injecting cooling water into the coil part, and an injection pump for supplying cooling water to the injection nozzle, and formed on the coil part and injected into the coil part. A condensation unit for condensing the water vapor, which has been cooled, and an upper portion of the condensation unit, and an air intake port of the case. Industrial water, including a fan for passing the sucked outside air through the coil portion to the outside of the case, and a storage tank formed under the coil portion and storing a predetermined amount of cooling water injected from the spray nozzle of the cooling portion. Provide a cooling device.

In the industrial water cooling apparatus according to the present invention, the condensation unit may be composed of a plurality of condensation units having side surfaces bent, and a coupling unit combining the plurality of condensation units.

In the industrial water cooling apparatus according to the present invention, the condensation unit may be made of a synthetic resin.

In the industrial water cooling apparatus according to the present invention, the cooling water stored in the reservoir may be circulated to be injected into the injection pump and provided to the injection nozzle to be injected into the coil unit.

In the industrial water cooling apparatus according to the present invention, the reservoir may further include a water level control unit for measuring a level of the stored coolant to store a predetermined amount of coolant.

According to the present invention, there is an effect that the industrial water can be cooled quickly and efficiently by simultaneously applying the air cooling type by the fan and the water cooling type by the cooling unit.

In addition, it is possible to minimize the discharge of the high temperature water vapor generated during the cooling of the industrial water, there is an effect that can be efficiently used by circulating the cooling water used by the cooling unit.

1 is a schematic perspective view of an industrial water cooling apparatus according to a preferred embodiment of the present invention.
FIG. 2A is a plan view of the industrial water cooling device of FIG. 1. FIG.
FIG. 2B is a front view of the industrial water cooling device of FIG. 1.
FIG. 2C is a side view illustrating the internal configuration of the industrial water cooling device of FIG. 1. FIG.
3 is a plan view and a side view of the condensation unit of the industrial water cooling device of FIG. 1.
4 schematically illustrates a coil unit of the industrial water cooling device of FIG. 1.

Hereinafter, with reference to the accompanying drawings, preferred embodiments of the present invention for achieving the above object will be described in detail.

1 is a schematic perspective view of an industrial water cooling apparatus according to a preferred embodiment of the present invention, FIG. 2A is a plan view of the industrial water cooling apparatus of FIG. 1, FIG. 2B is a front view of the industrial water cooling apparatus of FIG. 1, and FIG. 2C is a side view illustrating the internal configuration of the industrial water cooling device of FIG. 1. 3 is a plan view and a side view of a condensation part of the industrial water cooling device of FIG. 1, and FIG. 4 schematically illustrates a coil part of the industrial water cooling device of FIG. 1.

1 to 4, the industrial water cooling device 100 according to the present invention includes a case 110, an inlet valve 120, a coil unit 130, a discharge valve 140, and cooling. The unit 150, the condenser 160, the fan 170, and the reservoir 180 are formed.

First, the case 110 forms an outer shape of the industrial water cooling device 100 and includes a lower case 111 and an upper case 112. Here, the case 110 is the lower case 111 and the upper case 112, respectively, the ends of the lower case 111 and the upper case 112 formed to extend to the outside, the bolt 113-1 and the nut 113-2 Is coupled to each other, and silica 113-3 is interposed between the ends of the case 110 so that the cooling water does not flow out from the inside of the case 110 to the outside. In addition, the lower case 111 is provided with a plurality of air inlets 111-1 for sucking air from the outside. On the other hand, the air inlet 111-1 may be formed a blocking network (111-2) for blocking the inflow of foreign matter from the outside.

Next, the inlet valve 120 is formed to communicate with the inner side of the case 110 on one side of the case 110, that is, the upper case 112, and protrudes outward from the upper case 112, Industrial water is drawn in from the outside through the protruding inlet valve 120. For example, an inlet hose (not shown) provided with industrial water is coupled to the protruding inlet valve 120 so that industrial water to be cooled from the inlet hose to the inlet valve 120 is introduced.

Next, the coil unit 130 distributes the industrial water drawn in through the inlet valve 120 to substantially cool the industrial water. Here, as shown in FIG. 4, the coil part 130 maintains a constant shape of the copper pipe 131 and the copper pipe 131 that are bent in a zigzag shape, or the copper tube 131 may be a case 110. It may be made of a guide plate (132) for fixing to the inside of the). For example, the copper pipe 131 is elongated in a zigzag shape to efficiently cool industrial water passing through the copper pipe 131. Meanwhile, one end of the copper tube 131 of the coil unit 130 is coupled to communicate with the inlet valve 120, and the other end of the copper tube 131 of the coil unit 130 is coupled to communicate with the discharge valve 140. In addition, as shown in FIG. 4, the copper tube 131 of the coil unit 130 may be formed of at least one or more tubes to increase the cooling amount per unit time of industrial water.

Next, the outlet valve 140 is protruded to the outside on the other side of the case 110 and the upper case 112, and discharges industrial water passing through the coil unit 130. Here, the protruding discharge valve 140 is coupled to a discharge hose (not shown), and communicated with the copper tube 131 of the coil unit 130 to discharge the industrial water cooled while passing through the coil unit 130 to the discharge hose. Let's do it.

Next, the cooling unit 150 is formed inside the case 110 and the upper case 112 and formed above the coil unit 130 to inject the cooling water into the copper tube 131 of the coil unit 130. Injection nozzle 151, and an injection pump 152 formed outside the case 110 and supplying cooling water to the injection nozzle 151. That is, the cooling water injected through the injection nozzle 151 of the cooling unit 150 cools the coil unit 120 by water cooling to cool the industrial water passing through the coil unit 120 to a predetermined temperature or less. Here, the injection nozzle 151 and the injection pump 152 may be connected by a connecting pipe 153. In addition, the injection nozzle 151 may extend in the connecting pipe 153 and may be formed in a tubular shape in which the opening portion 151-1 is formed in the coil part 130 direction.

Next, the condensation unit 160 is formed above the coil unit 150, and the cooling water injected into the coil unit 130 condenses vaporized water vapor by the high temperature coil unit 130 to quickly reduce the cooling water. It plays a role.

Here, as shown in FIG. 3, the condensation unit 160 includes a plurality of condensation units 161 stacked side by side with bends, and a coupling unit 162 for closely coupling the plurality of condensation units 161. Can be done. On the other hand, the side surface of the condensation unit 161 may be formed in a 'V' shape with both ends bent, the movement path of the vaporized water vapor from the coil unit 130 by the shape of the condensation unit 161 described above By lengthening the condensation of the water vapor is made more smoothly. In addition, due to the 'V' shaped side structure of the condensation unit 161, when the vaporized water vapor rises in contact with the surface of the condensation unit 161, the condensation of water vapor on the surface can occur smoothly and quickly.

On the other hand, in order to prevent corrosion by contact with the water vapor of the condensation unit 161 may include a synthetic resin, for example, PVC (PolyVinyl Chloride). 3A is a side view of the condenser 160, and (b) is a plan view of the condenser 160.

Next, the fan 170 is formed above the condensation unit 160, and the outside air sucked from the air inlet 111-1 of the case 110 passes through the coil unit 130 to the outside of the upper case 112. To be discharged. Here, the fan 170 sucks the outside air to pass through the coil unit 130 and then discharges it to the outside, thereby cooling the coil unit 130 more smoothly by an air cooling method, and in the inner space of the case 110. By introducing the cooling water present in the gas state into the condensation unit 160, the cooling water may be rapidly reduced to the liquid cooling water to further improve cooling efficiency. Here, the fan 170 rotates by using the rotation shaft 172 as the rotation shaft, and a plurality of blades 171 for discharging the heat inside the case 110 to the outside, and a driving motor for rotating the blades 171. 173. In addition, a blocking network 174 may be formed on the upper side of the blade 171 to block the inflow of foreign substances from the outside.

Next, the storage tank 180 is formed below the coil unit 150 and continuously stores the cooling water sprayed from the injection nozzle 151 of the cooling unit 150 at a predetermined level. Here, the coolant stored in the reservoir 180 may be re-introduced into the injection pump 152 and provided to the injection nozzle 151 to be circulated to be injected into the coil unit 150. That is, by the circulation of the cooling water, unnecessary waste of the cooling water can be minimized.

Meanwhile, the storage tank 180 may further include a water level adjusting unit 181 for measuring a level of the stored coolant to store a predetermined amount of coolant. For example, the level control unit 181 is to maintain the level of the coolant measured by the buoy 181-1 and the buoy 181-1 to measure the level of the coolant stored in the reservoir 180 at a predetermined level. It may be made of a cooling water supply valve (181-2) for supplying cooling water to the reservoir (180).

The above terms are terms set in consideration of functions in the present invention, which may vary depending on the intention or custom of the producer, and the definitions should be made based on the contents throughout the specification. In addition, in describing the embodiments of the present invention, the industrial water cooling apparatus having a specific shape and structure has been described with reference to the accompanying drawings. However, the present invention may be variously modified and changed by those skilled in the art. Should be construed as falling within the protection scope of the present invention.

100: industrial water cooling device 110: case
111: lower case 112: upper case
113-1: Bolt 113-2: Nut
113-3: Silica 111-1: Air intake
120: inlet valve 130: coil portion
131: copper tube 132: guide plate
140: discharge valve 150: cooling unit
151 injection nozzle 152 injection pump
160: condensation unit 161: condensation unit
162: coupling unit 170: fan
171: blade 172: rotation axis
180: reservoir 181: water level control unit
181-1: Buoy 181-2: Supply Valve
111-2: blocking network 174: blocking network
153 connector 173 drive motor
151-1: opening

Claims (5)

A case in which a plurality of air inlets for sucking air from the outside are formed on the lower side;
An inlet valve formed on one side of the case and receiving industrial water from the outside;
A coil unit for distributing industrial water introduced through the inlet valve;
A discharge valve formed on the other side of the case and discharging industrial water passing through the coil unit;
A cooling unit which is formed inside the case and is formed on an upper side of the coil unit and comprises a plurality of injection nozzles for injecting cooling water into the coil unit, and an injection pump for supplying cooling water to the injection nozzles;
A condensation unit formed above the coil unit and condensing water vapor vaporized into the cooling water injected into the coil unit;
A fan formed above the condensation unit and configured to discharge external air sucked from the air inlet of the case to the outside of the case by passing the coil unit;
An industrial water cooling device which is formed under the coil portion and includes a storage tank for storing a predetermined amount of cooling water injected from an injection nozzle of the cooling portion. The method according to claim 1,
The condensation unit is an industrial water cooling device, characterized in that consisting of a plurality of condensation unit is formed with a curved side, and a coupling unit for coupling the plurality of condensation units. The method according to claim 2,
The condensation unit is an industrial water cooling device, characterized in that made of a synthetic resin. The method according to claim 1,
Cooling water stored in the reservoir is introduced into the injection pump and provided to the injection nozzle is circulated to be sprayed to the coil unit. The method of claim 4,
The reservoir, the industrial water cooling apparatus further comprises a water level control unit for measuring a level of the stored coolant to store a predetermined amount of coolant.

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