阅读说明：本技术 一种自然式高效冷却水装置 (Natural high-efficiency cooling water device ) 是由 张跃进 段学荣 张达甫 陈守武 杨丽 王利萍 于 2019-10-28 设计创作，主要内容包括：本发明涉及生产用冷却水冷却技术领域,具体涉及一种自然式高效冷却水装置,热水池顶部连接冷却回水管,热水池底部设置有出水管,出水管连接循环水管,出水管和循环水管间设置有冷却水内循环水泵；循环水管连接微孔雾化板A；微孔雾化板A设置在冷却室A内；冷却塔通过冷却塔支架设置在热水池顶部；冷却塔内分别设置有冷却室A和冷却室B；冷却室A和冷却室B通过舱内隔板隔开；冷却室A底部设置有集水槽A；集水槽A内设置有水泵；集水槽B底部连接排水管,排水管连接至冷水池内,冷水池底部设置有出水管,出水管设置有冷却水外循环水泵,解决冷却塔冷却水效果不好的问题。(The invention relates to the technical field of cooling water for production, in particular to a natural efficient cooling water device, wherein the top of a hot water pool is connected with a cooling water return pipe, the bottom of the hot water pool is provided with a water outlet pipe, the water outlet pipe is connected with a circulating water pipe, and a cooling water internal circulating water pump is arranged between the water outlet pipe and the circulating water pipe; the circulating water pipe is connected with the micropore atomization plate A; the micropore atomization plate A is arranged in the cooling chamber A; the cooling tower is arranged at the top of the hot water pool through a cooling tower bracket; a cooling chamber A and a cooling chamber B are respectively arranged in the cooling tower; the cooling chamber A and the cooling chamber B are separated by an in-cabin partition plate; a water collecting tank A is arranged at the bottom of the cooling chamber A; a water pump is arranged in the water collecting tank A; the drain pipe is connected to water catch bowl B bottom, and in drain pipe connection to cold water pool, cold water pool bottom was provided with the outlet pipe, and the outlet pipe is provided with the cooling water extrinsic cycle water pump, solves the not good problem of cooling tower cooling water effect.)

1. The utility model provides a high-efficient cooling water installation of nature formula which characterized in that: the device comprises a hot water tank (1), a cold water tank (2), a cooling tower (3), a cooling water return pipe (4), a water outlet pipe (5), a cooling water internal circulation water pump (6), a circulation water pipe (7), a water outlet pipe (8), a water outlet pipe (9), a cooling water external circulation water pump (10), a micropore atomization plate A (14), a cooling chamber A (15), a water collecting tank A (16), a water pump (17), an internal circulation pipe (18), a micropore atomization plate B (19), an atomization plate support (20), an in-cabin partition plate (21), a cooling chamber B (22) and a water collecting tank B (23); the top of the hot water pool (1) is connected with a cooling water return pipe (4), the bottom of the hot water pool (1) is provided with a water outlet pipe (5), the water outlet pipe (5) is connected with a circulating water pipe (7), and a cooling water internal circulating water pump (6) is arranged between the water outlet pipe (5) and the circulating water pipe (7); the circulating water pipe (7) is connected with the micropore atomization plate A (14); the micropore atomization plate A (14) is arranged in the cooling chamber A (15); the cooling tower (3) is arranged at the top of the hot water pool (1) through a cooling tower bracket (24); a cooling chamber A (15) and a cooling chamber B (22) are respectively arranged in the cooling tower (3); the cooling chamber A (15) and the cooling chamber B (22) are separated by an intra-cabin partition plate (21); the bottom of the cooling chamber A (15) is provided with a water collecting tank A (16); a water pump (17) is arranged in the water collecting tank A (16), and the water pump (17) is connected with a micropore atomization plate B (19) through an internal circulating pipe (18); the internal circulation pipe (18) is arranged in the cabin internal partition board (21); the micropore atomization plate B (19) is fixed in the cooling chamber B (22) through an atomization plate bracket (20); the bottom of the cooling chamber B (22) is provided with a water collecting tank B (23), the bottom of the water collecting tank B (23) is connected with a water discharging pipe (8), the water discharging pipe (8) is connected into the cold water pool (2), the bottom of the cold water pool (2) is provided with a water discharging pipe (9), and the water discharging pipe (9) is provided with a cooling water external circulation water pump (10).

2. The natural high efficiency cooling water device of claim 1, wherein: the micropore atomization plate A (14) is supported by a circulating water pipe (7); the micropore atomization plate A (14) is obliquely arranged in the cooling chamber A (15), and the inclined plane of the micropore atomization plate A (14) points to the outer wall of the cooling tower (3); the micropore atomization plate A (14) is internally provided with a cavity, the surface of the micropore atomization plate A (14) is provided with spray heads (32), and the spray heads (32) are arranged in an angle staggered mode.

3. The natural high efficiency cooling water device of claim 1, wherein: the micropore atomization plate B (19) is arranged in the cooling chamber B (22) in an annular mode, spray heads (32) are arranged on the surface of the micropore atomization plate B (19), and the spray heads (32) are arranged in an angle staggered mode.

4. The natural high efficiency cooling water device of claim 1, wherein: the cooling tower (3) top is provided with fan motor (25), and cooling fan (26) is connected in fan motor (25), and cooling fan (26) set up in fan motor (25) lower part.

5. The natural high efficiency cooling water device of claim 1, wherein: a solar support plate (12) is arranged at the upper part of the cooling tower (3), the solar support plate (12) is connected with the cooling tower (3) through a support (11), a solar power generation plate (13) is arranged on the solar support plate (12), the solar power generation plate (13) is connected with a storage battery (31); a condensing plate (27) is arranged at the bottom of the solar support plate (12), the condensing plate (27) is arranged in an arc shape, a condensed water collector (28) is arranged at the lower part of the condensing plate (27), and the condensed water collector (28) is connected with the condensing plate (27) through a connecting rod (29); the bottom of the condensed water collector (28) is connected with a recovery water pipe (30), and the recovery water pipe (30) is connected with the cold water pool (2).

6. The natural high efficiency cooling water device of claim 1, wherein: and the outer wall of the cooling tower (3) is provided with a radiating fin (31), and the radiating fin (31) is arranged outside the cooling chamber A (15).

Technical Field

The invention relates to the technical field of cooling water for production, in particular to a natural efficient cooling water device.

Background

In the industrial production process, a circulating water cooling system becomes an indispensable part, in the prior art, the circulating cooling of the process water by the cooling tower is a common way, but in the traditional cooling tower working process, the cooling effect is not ideal, and the circulating water can be cooled only by 20-30 degrees, which cannot reach the standard of reuse.

Disclosure of Invention

The invention aims to provide a natural efficient cooling water device, which solves the problem that the cooling water effect of a cooling tower is poor.

In order to solve the technical problems, the invention adopts the following technical scheme:

a natural efficient cooling water device comprises a hot water tank, a cold water tank, a cooling tower, a cooling water return pipe, a water outlet pipe, a cooling water internal circulation water pump, a circulation water pipe, a water outlet pipe, a cooling water external circulation water pump, a micropore atomization plate A, a cooling chamber A, a water collecting tank A, a water pump, an internal circulation pipe, a micropore atomization plate B, an atomization plate support, an intra-cabin partition plate, a cooling chamber B and a water collecting tank B; the top of the hot water pool is connected with a cooling water return pipe, the bottom of the hot water pool is provided with a water outlet pipe, the water outlet pipe is connected with a circulating water pipe, and a cooling water internal circulating water pump is arranged between the water outlet pipe and the circulating water pipe; the circulating water pipe is connected with the micropore atomization plate A; the micropore atomization plate A is arranged in the cooling chamber A; the cooling tower is arranged at the top of the hot water pool through a cooling tower bracket; a cooling chamber A and a cooling chamber B are respectively arranged in the cooling tower; the cooling chamber A and the cooling chamber B are separated by an in-cabin partition plate; a water collecting tank A is arranged at the bottom of the cooling chamber A; a water pump is arranged in the water collecting tank A and is connected with the micropore atomization plate B through an internal circulating pipe; the internal circulating pipe is arranged in the cabin partition board; the micropore atomization plate B is fixed in the cooling chamber B through an atomization plate bracket; the bottom of the cooling chamber B is provided with a water collecting tank B, the bottom of the water collecting tank B is connected with a water discharging pipe, the water discharging pipe is connected into a cold water pool, the bottom of the cold water pool is provided with a water discharging pipe, and the water discharging pipe is provided with a cooling water external circulation water pump.

Further, the micropore atomization plate A is supported by a circulating water pipe; the micropore atomization plate A is obliquely arranged in the cooling chamber A, and the inclined plane of the micropore atomization plate A points to the outer wall of the cooling tower; the inside cavity that is provided with of micropore atomization board A, micropore atomization board A surface are provided with the shower nozzle, and the shower nozzle angle is crisscross to be set up.

Further, micropore atomization board B sets up inside cooling chamber B for the annular, and micropore atomization board B surface is provided with the shower nozzle, and the shower nozzle angle is crisscross to be set up.

Furthermore, a fan motor is arranged at the top of the cooling tower and connected with a cooling fan, and the cooling fan is arranged at the lower part of the fan motor.

Further, a solar support plate is arranged at the upper part of the cooling tower and connected with the cooling tower through a support, and a solar power generation plate is arranged on the solar support plate and connected with a storage battery; the bottom of the solar supporting plate is provided with a condensing plate which is arranged in an arc shape, the lower part of the condensing plate is provided with a condensate water collector, and the condensate water collector is connected with the condensing plate through a connecting rod; the bottom of the condensed water collector is connected with a water recovery pipe, and the water recovery pipe is connected with a cold water pool.

Further, the outer wall of the cooling tower is provided with cooling fins, and the cooling fins are arranged outside the cooling chamber A.

Compared with the prior art, the invention can realize one of the following beneficial effects:

1. the top of the hot water pool is connected with a cooling water return pipe, the bottom of the hot water pool is provided with a water outlet pipe, the water outlet pipe is connected with a circulating water pipe, and a cooling water internal circulating water pump is arranged between the water outlet pipe and the circulating water pipe; the circulating water pipe is connected with the micropore atomization plate A; the micropore atomization plate A is arranged in the cooling chamber A; the cooling tower is arranged at the top of the hot water pool through a cooling tower bracket; a cooling chamber A and a cooling chamber B are respectively arranged in the cooling tower; the cooling chamber A and the cooling chamber B are separated by an in-cabin partition plate; a water collecting tank A is arranged at the bottom of the cooling chamber A; a water pump is arranged in the water collecting tank A and is connected with the micropore atomization plate B through an internal circulating pipe; the internal circulating pipe is arranged in the cabin partition board; the micropore atomization plate B is fixed in the cooling chamber B through an atomization plate bracket; cooling chamber B bottom is provided with water catch bowl B, water catch bowl B bottom run-on water pipe, in water piping connection to the cold water pond, cold water bottom of the pool portion is provided with the outlet pipe, the outlet pipe is provided with the outer circulating water pump of cooling water, can realize being provided with two cooling chamber A and cooling chamber B in through the cooling tower, cool the circulating water twice, improve the cooling effect, atomize the circulating water and spray cooling chamber A and cooling chamber B through setting up micropore atomization board A and micropore atomization board B, increase area of contact and the contact time of circulating water and air, further improve cooling efficiency.

2. The micropore atomization plate A is supported by a circulating water pipe; the micropore atomization plate A is obliquely arranged in the cooling chamber A, and the inclined plane of the micropore atomization plate A points to the outer wall of the cooling tower; the inside cavity that is provided with of micropore atomization board A, micropore atomization board A surface are provided with the shower nozzle, and the crisscross setting of shower nozzle angle can realize spraying the cooling tower outer wall with the circulating water and increase the cooling effect to the shower nozzle of crisscross setting on micropore atomization board A can make spun circulating water collide mutually, increases the cooling effect.

3. Micropore atomization board B sets up inside cooling chamber B for the annular, and micropore atomization board B surface is provided with the shower nozzle, and the setting is crisscross to the shower nozzle angle, can realize making spun circulating water collide each other, increases the cooling effect.

4. The cooling tower top is provided with fan motor, and fan motor connects the cooling fan, and the cooling fan setting can realize increasing cooling efficiency through the cooling fan in fan motor lower part.

5. The solar cooling tower is characterized in that a solar support plate is arranged at the upper part of the cooling tower and connected with the cooling tower through a bracket, and a solar power generation plate is arranged on the solar support plate and connected with a storage battery; the bottom of the solar supporting plate is provided with a condensing plate which is arranged in an arc shape, the lower part of the condensing plate is provided with a condensate water collector, and the condensate water collector is connected with the condensing plate through a connecting rod; the bottom of the condensed water collector is connected with a recovery water pipe, and the recovery water pipe is connected with a cold water pool, so that the solar panel can generate electricity and store the electricity into a storage battery to be used by a water supply pump, and the aim of saving energy is fulfilled; and then the high-temperature gas emitted from the top of the cooling tower is collected and condensed by a condensing plate arranged at the bottom of the solar support plate, and then is recovered into a cold water pool by a condensed water collector.

6. The outer wall of the cooling tower is provided with the radiating fins, and the radiating fins are arranged outside the cooling chamber A, so that the radiating of the cooling tower can be improved, and the cooling efficiency is increased.

Drawings

FIG. 1 is a schematic view of the structure of the present invention.

FIG. 2 is a schematic view of a cooling tower according to the present invention.

FIG. 3 is a schematic diagram of a structure of a condenser plate according to the present invention.

FIG. 4 is a schematic diagram of a microporous atomization plate structure according to the present invention.

Detailed Description

In order to make the objects, technical solutions and advantages of the present invention more apparent, the present invention is described in further detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the invention and are not intended to limit the invention.