Indirect air cooling tower heat dissipation device

Abstract

The utility model discloses a heat dissipation device of an indirect air cooling tower, which comprises a cooling triangle comprising a frame body arranged on one side of the indirect air cooling tower; comprising two heat exchange parts which are arranged on the two sides, close to an indirect cooling tower, of a frame body. The air guide part is arranged on the side, away from the indirect cooling tower, of the frame body; the water conveying component is arranged below the frame body; the heat dissipation component is arranged in the frame body; when the external temperature is higher than a preset value, the cooling medium is blown into the frame body through the cooperation between the heat dissipation component and the water conveying component, the air guide component drives the airflow to blow into the frame body to be in contact with the cooling medium and cool the airflow, and then the airflow drives the cooling medium to blow to each heat exchange component. The cooling medium cools the heat exchange components and exchanges heat with the to-be-cooled medium, and the airflow blows through the heat exchange components and further exchanges heat with the to-be-cooled medium, so that the heat exchange efficiency is improved.

Description

TECHNICAL FIELD

[0001] The utility model relates to energy engineering technical field especially relates to an indirect air cooling tower heat abstractor. BACKGROUND

[0002] The indirect air cooling tower is a kind of cooling technology that heat transfer is carried out to cooling medium by natural wind, is widely used in industrial production, especially in electric power, chemical industry, metallurgy and other industries, has the advantages such as water saving, environmental protection, stable operation.

[0003] In actual use process, the core heat dissipation mode of indirect cooling tower is usually to surround multiple cooling triangles around indirect cooling tower, air flow exchanges heat with cooling medium in cooling triangle when passing through cooling triangle, and air flow after heat exchange is discharged through indirect cooling tower, but the heat exchange efficiency is greatly influenced by environmental temperature, when being in summer or high-temperature environment, external air flow is difficult to effectively exchange heat with cooling medium in cooling triangle, thereby the working efficiency of cooling triangle is influenced, therefore, the present application proposes an indirect air cooling tower heat abstractor capable of improving heat exchange efficiency in high-temperature environment. UTILITARIAN CONTENT

[0004] The utility model is mainly aimed at providing an indirect air cooling tower heat abstractor capable of improving heat exchange efficiency in high-temperature environment.

[0005] To realize the above-mentioned purpose, the utility model provides an indirect air cooling tower heat abstractor, which comprises:

[0006] An indirect air cooling tower heat abstractor, characterized by comprising:

[0007] Cooling triangle, comprising the frame body arranged at one side of indirect cooling tower, and the frame body is triangular;

[0008] Further comprising two heat exchange components, each heat exchange component is arranged at two sides of the frame body close to the indirect cooling tower, for exchanging heat between cooling medium and external air flow;

[0009] Further comprising air guide component, which is arranged at the side of the frame body away from the indirect cooling tower, for guiding external air flow to each heat exchange component;

[0010] Water conveying component is arranged in the frame body, and cooling medium is stored in the water conveying component;

[0011] The heat dissipation component is arranged in the frame body and comprises a first sleeve vertically arranged in the frame body, a plurality of atomizing nozzles vertically distributed on the first sleeve, and each atomizing nozzle corresponding to the heat exchange component, each atomizing nozzle being used for spraying cooling medium to the direction of the corresponding heat exchange component; the frame body further comprises an adjusting assembly arranged in the first sleeve, one end of the adjusting assembly being in communication with each atomizing nozzle, and the other end of the adjusting assembly being in communication with the water conveying component, the adjusting assembly being used for adjusting the flow of the cooling medium to each atomizing nozzle.

[0012] Further, the water conveying component comprises a water storage tank arranged at the bottom of the frame body, the water storage tank storing the cooling medium, the water storage tank being provided with a water conveying pipe for conveying the cooling medium, a plurality of water conveying openings being formed in the water conveying pipe, each water conveying opening being in communication with one end of the adjusting assembly, and each water conveying opening corresponding to each atomizing nozzle, the water conveying pipe being used for conveying the cooling medium to the adjusting assembly, and a water pump being further arranged between the water storage tank and the water conveying pipe, the water pump being used for pumping the cooling medium in the water storage tank into the water conveying pipe.

[0013] Further, the adjusting assembly comprises a second sleeve vertically arranged in the frame body, the top of the second sleeve being rotatably arranged on the bottom surface of the top end of the frame body, the water conveying pipe being arranged in the second sleeve, and the inner wall of the second sleeve being rotatably arranged with the outer wall of the water conveying pipe, the first sleeve being sleeved on the second sleeve, and the outer wall of the second sleeve being rotatably arranged with the inner wall of the first sleeve, the second sleeve being in dynamic sealing connection with the water conveying pipe and the first sleeve, respectively, a plurality of groups of through holes with different diameters being distributed on the second sleeve, when the second sleeve is rotated to make one group of the through holes in communication with the corresponding water conveying openings, respectively, since each water conveying opening corresponds to each atomizing nozzle, at this time, each through hole is in communication with the corresponding water conveying opening and the corresponding atomizing nozzle, at this time, the cooling medium flows into the corresponding atomizing nozzle through each water conveying opening and the through hole, at this time, the through hole is used for controlling the flow of the cooling medium to the corresponding atomizing nozzle, the frame body is further provided with a first power unit arranged on the top end of the frame body, the moving end of the first power unit being connected with the second sleeve, the first power unit being used for driving the second sleeve to rotate, the frame body is further provided with a temperature detection unit for detecting the temperature of the external environment, the frame body is further provided with a controller, the controller being in signal connection with the temperature detection unit and the first power unit, respectively, the controller being used for receiving the signal sent by the temperature detection unit and controlling the first power unit to execute the corresponding action instruction;

[0014] When the external temperature is higher than a predetermined value, the controller is used for receiving the signal sent by the temperature detection unit and controlling the first power unit to rotate, so that the first power unit drives the second sleeve to rotate.

[0015] Further, the frame body is provided with a first connecting frame away from one side of the inter-cooling tower;

[0016] The air guide component comprises two groups of air guide plates vertically arranged in the first connecting frame, and the two groups of air guide plates are distributed side by side, one group of air guide plates comprises a plurality of first air guide plates, and the other group of air guide plates comprises a plurality of second air guide plates, each first air guide plate is distributed in the first connecting frame in a straight line at equal intervals, and both ends of each first air guide plate are rotatably arranged on the first connecting frame, each second air guide plate is distributed in the first connecting frame in a straight line at equal intervals, and both ends of each second air guide plate are rotatably arranged on the first connecting frame, the first air guide plate and the second air guide plate are used for guiding the flow direction of air flow into the frame body, and the adjusting assembly arranged in the frame body is further provided, the adjusting assembly is connected with each first air guide plate and each second air guide plate, and the adjusting assembly is used for driving each first air guide plate and second air guide plate to rotate.

[0017] Further, the adjusting assembly comprises a first gear arranged on the top end of the first air guide plate close to the center of the first connecting frame, and a second gear arranged on the top end of the second air guide plate close to the center of the first connecting frame, and the first gear and the second gear are meshed with each other, when the first gear rotates, the first gear meshes with the second gear and drives the second gear to rotate relative to the first gear, a second power unit is further arranged on the top end of the frame body, a moving end of the second power unit extends into the frame body and is connected with the top end of the first air guide plate close to the center of the first connecting frame, the second power unit is used for driving the corresponding first air guide plate to rotate, chain transmission members are further arranged on each first air guide plate and another chain transmission member is arranged on each second air guide plate, when the first air guide plate rotates, the chain transmission member connected with each first air guide plate drives each first air guide plate to rotate, and the chain transmission member connected with each second air guide plate drives each second air guide plate to rotate.

[0018] Further, the frame body is provided with a second connecting frame close to both sides of the inter-cooling tower;

[0019] The heat exchange component comprises a plurality of heat dissipation fins vertically arranged on the second connecting frame, and each heat dissipation fin is distributed in the second connecting frame in a straight line at equal intervals, the heat dissipation fin is used for transferring heat of the medium to be cooled, and a heat exchange pipe is further arranged on the second connecting frame, the heat exchange pipe is arranged in an "S" shape and penetrates each heat dissipation fin, and the heat exchange pipe is used for conveying the medium to be cooled.

[0020] The beneficial effects of the utility model lie in:

[0021] The utility model discloses, when the outside temperature is higher than the predetermined value, through the cooperation between the heat dissipation part and the water delivery part, the cooling medium is blown into the frame body, the air guide part drives the airflow to blow into the frame body and makes the airflow cooling, then the airflow drives the cooling medium to blow to each heat exchange part, makes the cooling medium cooling to the heat exchange part and the heat exchange with the medium to be cooled, and the airflow blows through each heat exchange part and further exchanges heat with the medium to be cooled, thereby improve the heat exchange efficiency. BRIEF DESCRIPTION OF DRAWINGS

[0022] Figure 1 It is the first perspective view of the indirect air cooling tower heat dissipation device of the utility model;

[0023] Figure 2 It is the second perspective view of the indirect air cooling tower heat dissipation device of the utility model;

[0024] Figure 3 It is the section view of first connecting frame;

[0025] Figure 4 It is Figure 3 The enlarged view of A in it;

[0026] Figure 5 It is the structure view of heat dissipation part;

[0027] Figure 6 It is the section view of the indirect air cooling tower heat dissipation device of the utility model;

[0028] Figure 7 It is Figure 6 The enlarged view of B in it;

[0029] Figure 8 It is the use example drawing of the indirect air cooling tower heat dissipation device of the utility model.

[0030] BRIEF DESCRIPTION OF DRAWINGS

[0031] 1, frame body;11, first connecting frame;12, second connecting frame;2, heat exchange part;21, heat dissipation fin;22, heat exchange pipe;3, air guide part;31, first air guide plate;32, second air guide plate;33, adjustment assembly;331, first gear;332, second gear;333, second power unit;334, chain transmission component;3341, chain wheel;3342, chain;4, water delivery part;41, water storage tank;42, water delivery pipe;421, water delivery port;43, water pump;5, heat dissipation part;51, first sleeve;52, atomizing nozzle;53, adjustment assembly;531, second sleeve;532, through -hole;533, first power unit;534, temperature detection unit;6, indirect air cooling tower. DETAILED DESCRIPTION

[0032] The technical solutions in the embodiments of the utility model will be clearly and completely described below with reference to the drawings in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, rather than all the embodiments. The embodiments in the application and the features in the embodiments can be combined with each other without conflict.

[0033] Referring to Figures 1-8 .

[0034] The utility model discloses an indirect air cooling tower heat abstractor, including:

[0035] Cooling triangle, including setting up in the frame body 1 of one side of interval cooling tower 6, this frame body 1 is triangular;

[0036] Still include two heat exchange components 2, each heat exchange component 2 is set up in the two sides of frame body 1 close to interval cooling tower 6 respectively, for making the medium to be cooled and the outside air flow heat exchange;

[0037] Still include air guide component 3, set up in the side of frame body 1 away from interval cooling tower 6, for guiding the outside air flow and blowing to each heat exchange component 2;

[0038] Water delivery component 4, set up in the frame body 1, the water delivery component 4 in storage has cooling medium;

[0039] Heat abstractor 5, set up in the frame body 1, including the first sleeve 51 of vertical setting in the frame body 1, a plurality of atomizing shower nozzles 52 are vertically distributed on the first sleeve 51, and each atomizing shower nozzle 52 is aligned with corresponding heat exchange component 2, and each atomizing shower nozzle 52 is used to spray cooling medium to the direction of corresponding heat exchange component 2, still include the adjusting assembly 53 of setting up in the first sleeve 51, one end of the adjusting assembly 53 is communicated with each atomizing shower nozzle 52, and the other end is communicated with water delivery component 4, and the adjusting assembly 53 is used to adjust the flow of cooling medium to each atomizing shower nozzle 52.

[0040] In the embodiment, when the ambient temperature is higher than the predetermined value, the air guiding component 3 guides the external air flow into the frame 1 and blows to the heat exchange components 2, at this time, the water conveying component 4 conveys the cooling medium to the atomizing nozzles 52 through the adjusting assembly 53, the adjusting assembly 53 controls the flow of the cooling medium to the atomizing nozzles 52 according to the ambient temperature, when the ambient temperature rises, the adjusting assembly 53 increases the flow of the cooling medium to the atomizing nozzles 52, when the ambient temperature decreases, the adjusting assembly 53 reduces the flow of the cooling medium to the atomizing nozzles 52, the cooling medium is atomized and sprayed through the atomizing nozzles 52 and fills in the frame 1, after the external air flow blows into the frame 1, the air flow first contacts the atomized cooling medium to produce evaporation and reduce the temperature of the air flow, then the air flow carries the cooling medium and blows to the heat exchange components 2, the cooling medium contacts the heat exchange components 2 and evaporates to cool the heat exchange components 2, the air flow blows through the heat exchange components 2 and further exchanges heat with the heat exchange components 2, thereby completing the cooling of the to-be-cooled medium.

[0041] The utility model discloses, when the ambient temperature is higher than the predetermined value, through the cooperation between the heat dissipation component 5 and the water conveying component 4, the cooling medium is blown into the frame 1, the air flow is driven by the air guiding component 3 and blown into the frame 1 and contacts the cooling medium and makes the air flow cooling, then the air flow carries the cooling medium and blows to the heat exchange components 2, makes the cooling medium cool the heat exchange components 2 and exchanges heat with the to-be-cooled medium, and the air flow blows through the heat exchange components 2 and further exchanges heat with the to-be-cooled medium, thereby improve heat exchange efficiency.

[0042] Preferably, the cooling medium can adopt water;

[0043] It should be noted that when the ambient temperature is lower than the predetermined value, the water conveying component 4 and the heat dissipation component 5 do not work, the air flow is guided by the air guiding component 3 and blown into the frame 1 to exchange heat with the heat exchange components 2, thereby saving power consumption.

[0044] It should be noted that the cooling triangle is provided with a plurality of cooling triangles, and the cooling triangles are sequentially contacted and surrounded around the intercooling tower, so that the air flow can blow into the intercooling tower from any direction and exchange heat with the to-be-cooled medium.

[0045] It should be noted that the to-be-cooled medium usually refers to the fluid used in the industrial process, such as the to-be-cooled liquid and the to-be-cooled gas.

[0046] In an embodiment, the water delivery component 4 comprises a water storage tank 41 arranged at the bottom of the frame 1, the water storage tank 41 storing the cooling medium, the water storage tank 41 being provided with a water delivery pipe 42 for delivering the cooling medium, the water delivery pipe 42 being provided with a plurality of water delivery openings 421, each water delivery opening 421 being in communication with one end of the regulating assembly 53, and each water delivery opening 421 corresponding to one atomizing nozzle 52, the water delivery pipe 42 being used for delivering the cooling medium to the regulating assembly 53, and the water storage tank 41 and the water delivery pipe 42 being further provided with a water pump 43, the water pump 43 being used for pumping the cooling medium in the water storage tank 41 to the water delivery pipe 42.

[0047] In this way, when the outside temperature is higher than the predetermined value, the water pump 43 pumps the cooling medium in the water storage tank 41 to the water delivery pipe 42, the cooling medium flows to the regulating assembly 53 through each water delivery opening 421, the regulating assembly 53 regulates the flow of the cooling medium according to the outside temperature, and the cooling medium is sprayed to the frame 1 through the atomizing nozzle 52 after passing through the regulating assembly 53 and contacts with the airflow, thereby cooling the airflow.

[0048] It should be noted that when each cooling triangle is arranged around the intercooling tower 6, each water delivery pipe 42 can share the same water storage tank 41, and the water storage tank 41 is arranged around the cooling tower, thereby facilitating the replenishment of the cooling medium to each water delivery pipe 42.

[0049] In an embodiment, the adjusting assembly 53 comprises a second sleeve 531 vertically arranged in the frame 1, a top of the second sleeve 531 is rotationally arranged on the frame 1, the water delivery pipe 42 is arranged in the second sleeve 531, and an inner wall of the second sleeve 531 is rotationally arranged with an outer wall of the water delivery pipe 42, the first sleeve 51 is sleeved on the second sleeve 531, and an outer wall of the second sleeve 531 is rotationally arranged with an inner wall of the first sleeve 51, the second sleeve 531 is sealingly connected with the water delivery pipe 42 and the first sleeve 51 respectively, a plurality of groups of through holes 532 with different diameters are distributed on the second sleeve 531, when the second sleeve 531 is rotated to make one group of the through holes 532 respectively communicate with the corresponding water delivery ports 421, since each water delivery port 421 corresponds to one atomizing nozzle 52, at this time, each through hole 532 communicates with the corresponding water delivery port 421 and the corresponding atomizing nozzle 52, and the cooling medium flows into the corresponding atomizing nozzle 52 through each water delivery port 421 and the through hole 532 at this time, at this time, the through hole 532 is used for controlling the flow of the cooling medium to the corresponding atomizing nozzle 52, the first power unit 533 arranged on the top of the frame 1 is further arranged, a moving end of the first power unit 533 is connected with the second sleeve 531, the first power unit 533 is used for driving the second sleeve 531 to rotate, the temperature detection unit 534 for detecting the temperature of the external environment is further arranged on the frame 1, the controller (not shown in the figure) is further arranged on the frame 1, the controller is signal connected with the temperature detection unit 534 and the first power unit 533 respectively, the controller is used for receiving the signal sent by the temperature detection unit 534 and controlling the first power unit 533 to execute the corresponding action instruction.

[0050] When the external temperature is higher than the predetermined value, the controller is used for receiving the signal sent by the temperature detection unit 534 and controlling the first power unit 533 to rotate, so that the first power unit 533 drives the second sleeve 531 to rotate.

[0051] Thus, when the outside temperature is higher than the predetermined value, the temperature detection unit 534 detects the actual outside temperature and sends a signal to the controller, the controller identifies the actual temperature and sends a signal to the first power unit 533, the first power unit 533 drives the second sleeve 531, so that each through hole 532 corresponding to the aperture is in communication with the corresponding water inlet 421. At this time, each through hole 532 is in communication with the corresponding water inlet 421 and the corresponding atomizing nozzle 52, and the cooling medium is sprayed into the frame 1 through each water inlet 421 and the corresponding through hole 532 and from each atomizing nozzle 52. When the outside temperature rises, the controller identifies the temperature detected by the temperature detection unit 534 again, and drives the second sleeve 531 to rotate again through the first power unit 533, so that the through hole 532 with a larger aperture corresponds to each water inlet 421 one by one, thereby increasing the flow rate of the cooling medium sprayed. When the outside temperature decreases, the controller identifies the temperature detected by the temperature detection unit 534, and drives the second sleeve 531 to rotate again through the first power unit 533, so that the through hole 532 with a smaller aperture corresponds to each water inlet 421 one by one, thereby reducing the flow rate of the cooling medium sprayed. Thus, the flow rate of the cooling medium sprayed can be changed with the change of the outside temperature, and the heat dissipation efficiency is improved.

[0052] In an embodiment, the frame 1 is provided with a first connecting frame 11 away from the side of the indirect cooling tower 6;

[0053] The air guide component 3 includes two groups of air guide plate groups vertically arranged in the first connecting frame 11, and the two groups of air guide plate groups are distributed side by side. One group of air guide plate groups includes a plurality of first air guide plates 31, and the other group of air guide plate groups includes a plurality of second air guide plates 32. Each first air guide plate 31 is linearly and equidistantly distributed in the first connecting frame 11, and both ends of each first air guide plate 31 are rotatably arranged on the first connecting frame 11. Each second air guide plate 32 is linearly and equidistantly distributed in the first connecting frame 11, and both ends of each second air guide plate 32 are rotatably arranged on the first connecting frame 11. The first air guide plate 31 and the second air guide plate 32 are used to guide the flow direction of the air flow into the frame 1. The adjustment assembly 33 is arranged in the frame 1, and the adjustment assembly 33 is connected with each first air guide plate 31 and each second air guide plate 32. The adjustment assembly 33 is used to drive each first air guide plate 31 and each second air guide plate 32 to rotate.

[0054] In this way, when the air flow needs to be guided into the frame 1, the adjusting assembly 33 drives the first air baffle 31 to rotate in one direction until the first air baffle 31 is aligned with one heat exchange component 2, at this time, the adjusting assembly drives the second air baffle 32 to rotate in the opposite direction of the first air baffle 31 until the second air baffle 32 is aligned with the other heat exchange component 2, when the air flow passes through the first air baffle 31 and the second air baffle 32, the air flow is guided by the first air baffle 31 and the second air baffle 32 and blows to the corresponding two heat exchange components 2, so that the air flow can be more evenly exchanged with the heat exchange components 2.

[0055] In an embodiment, the adjusting assembly 33 includes a first gear 331 arranged on the top end of the first air baffle 31 near the center of the first connecting frame 11, and a second gear 332 arranged on the top end of the second air baffle 32 near the center of the first connecting frame 11, and the first gear 331 and the second gear 332 are engaged with each other, when the first gear 331 rotates, the first gear 331 and the second gear 332 are engaged and drive the second gear 332 to rotate in the opposite direction of the first gear 331, and the second power unit 333 is arranged on the top end of the frame 1, the moving end of the second power unit 333 extends into the frame 1 and is connected to the top end of the first air baffle 31 near the center of the first connecting frame 11, the second power unit 333 is used to drive the corresponding first air baffle 31 to rotate, and the chain transmission member 334 is arranged on each first air baffle 31, and another chain transmission member 334 is arranged on each second air baffle 32, when the first air baffle 31 rotates, the chain transmission member 334 connected to each first air baffle 31 drives each first air baffle 31 to rotate, and the chain transmission member 334 connected to each second air baffle 32 drives each second air baffle 32 to rotate.

[0056] In this way, when the air flow needs to be guided into the frame 1, the second power unit 333 drives the first air baffle 31 near the center of the first connecting frame 11 to rotate, the chain transmission member 334 on the corresponding first air baffle 31 drives each first air baffle 31 to rotate until each first air baffle 31 is aligned with the corresponding heat exchange component 2, the first gear 331 rotates with the corresponding first air baffle 31 and is engaged with the second gear 332, the second gear 332 drives the corresponding second air baffle 32 to rotate in the opposite direction of the first air baffle 31, the chain transmission member 334 on the corresponding second air baffle 32 drives each second air baffle 32 to rotate until each second air baffle 32 is aligned with the corresponding heat exchange component 2, so that the air flow can be more evenly blown to each heat exchange component 2.

[0057] Preferably, the second power unit 333 can adopt the motor in the prior art.

[0058] It should be noted that the second power unit 333 can also be connected with the top end of the second air baffle 32 arranged near the center of the first connecting frame 11, when the second power unit 333 drives the corresponding second air baffle 32 to rotate, the first air baffle 31 can also rotate relative to the rotating direction of the second air baffle 32.

[0059] It should be noted that the chain transmission member 334 connected with the first air baffle 31 includes a sprocket 3341 arranged at the top end of the first air baffle 31 and a chain 3342 arranged on the sprocket 3341, when the second power unit 333 drives the corresponding first air baffle 31 to rotate, the sprocket arranged on the corresponding first air baffle 31 drives the sprocket 3341 on the first air baffle 31 to rotate through the chain 3342, thereby driving the first air baffle 31 to rotate synchronously, the chain transmission member 334 connected with the second air baffle 32 includes a sprocket 3341 arranged at the top end of the second air baffle 32 and another chain 3342 arranged on the corresponding sprocket 3341, when the second gear 333 rotates, the sprocket 3341 arranged on the corresponding second air baffle 32 drives the sprocket 3341 arranged on the second air baffle 32 to rotate through the corresponding chain 3342, thereby driving the second air baffle 32 to rotate relative to the rotating direction of the first air baffle 31.

[0060] In an embodiment, the frame body 1 is provided with a second connecting frame 12 near both sides of the intermediate cooling tower 6;

[0061] The heat exchange component 2 includes a plurality of heat dissipation fins 21 arranged vertically on the second connecting frame 12, and the heat dissipation fins 21 are linearly and equidistantly distributed in the second connecting frame 12, the heat dissipation fins 21 are used for transferring the heat of the medium to be cooled, and the second connecting frame 12 is further provided with a heat exchange pipe 22, the heat exchange pipe 22 is arranged in an "S" shape and penetrates through the heat dissipation fins 21, and the heat exchange pipe 22 is used for conveying the medium to be cooled.

[0062] In this way, when the medium to be cooled is conveyed into the heat exchange pipe 22 by an external conveying component (not shown in the figure), the airflow drives the cooling medium to contact the heat dissipation fins 21, thereby cooling the heat dissipation fins 21 and exchanging heat with the medium to be cooled, when the airflow passes through the heat dissipation fins 21, the medium to be cooled further exchanges heat with the airflow in the frame body 1 through the heat dissipation fins 21, thereby cooling the medium to be cooled, and the "S" shape design of the heat exchange pipe 22 can prolong the contact time of the medium to be cooled with the heat dissipation fins 21, thereby increasing the heat dissipation efficiency.

[0063] The above merely describes preferred embodiments of the present application and is not intended to limit the present application, and any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present application shall be included in the protection scope of the present application. In addition, "multiple", "multiple groups", "several" refer to two or more.

Claims

1. An indirect air-cooled tower heat dissipating device, characterized by, The application relates to a cooling triangle, which comprises a frame (1) arranged on one side of an intercooler tower (6) and in a triangular shape; two heat exchange components (2) arranged on two sides of the frame (1) close to the intercooler tower (6) and used for heat exchange between a medium to be cooled and ambient air; a wind guide component (3) arranged on the side of the frame (1) far away from the intercooler tower (6) and used for guiding ambient air to the heat exchange components (2); a water delivery component (4) arranged in the frame (1) and storing cooling medium; and a heat dissipation component (5) arranged in the frame (1) and comprising a first sleeve (51) arranged vertically in the frame (1), a plurality of atomizing nozzles (52) vertically arranged on the first sleeve (51) and corresponding to the heat exchange components (2), the atomizing nozzles (52) being used for spraying cooling medium to the heat exchange components (2), and an adjusting assembly (53) arranged in the first sleeve (51) and communicating with the atomizing nozzles (52) and the water delivery component (4) and used for adjusting the flow of the cooling medium to the atomizing nozzles (52). The water delivery component (4) comprises a water storage tank (41) arranged at the bottom of the frame (1) and storing cooling medium, a water delivery pipe (42) arranged on the water storage tank (41) and used for delivering cooling medium, a plurality of water delivery openings (421) arranged on the water delivery pipe (42) and communicating with the adjusting assembly (53) and the atomizing nozzles (52), and a water pump (43) arranged between the water storage tank (41) and the water delivery pipe (42) and used for pumping the cooling medium in the water storage tank (41) into the water delivery pipe (42). ​ ​ ​ ​ 2. The indirect air cooling tower heat dissipating device according to claim 1, wherein ​ 3. The indirect air cooling tower heat dissipating device according to claim 2, wherein The adjusting assembly (53) comprises a second sleeve (531) vertically arranged in the frame body (1), the top of the second sleeve (531) is rotationally arranged on the frame body (1), the water delivery pipe (42) is arranged in the second sleeve (531), and the inner wall of the second sleeve (531) is rotationally arranged with the outer wall of the water delivery pipe (42), the first sleeve (51) is sleeved on the second sleeve (531), and the outer wall of the second sleeve (531) is rotationally arranged with the inner wall of the first sleeve (51), the second sleeve (531) is sealingly connected with the water delivery pipe (42) and the first sleeve (51) respectively, a plurality of groups of through holes (532) with different hole diameters are distributed on the second sleeve (531), each group of hole diameters corresponds to a water delivery port (421) on the water delivery pipe (42), the rotation of the second sleeve (531) can make one group of the through holes (532) communicate with the corresponding water delivery port (421), so that the corresponding water delivery port (421) and the corresponding atomizing nozzle (52) communicate, and the cooling medium flows into the corresponding atomizing nozzle (52) through each water delivery port (421) and the through hole (532) at this time; A first power unit (533) is further arranged on the top end of the frame body (1), the first power unit (533) is used to drive the rotation of the second sleeve (531), the frame body (1) is further provided with a temperature detection unit (534) for detecting the temperature of the external environment and a controller, the controller is signal connected with the temperature detection unit (534) and the first power unit (533) respectively, and the controller is used to receive the signal sent by the temperature detection unit (534) and control the first power unit (533) to execute corresponding action instructions.

4. The indirect air cooling tower heat dissipating device according to claim 1, wherein The frame body (1) is provided with a first connecting frame (11) away from the indirect cooling tower (6); The air guide component (3) comprises two groups of air guide plate groups vertically arranged in the first connecting frame (11), and the two groups of air guide plate groups are distributed side by side, one group of air guide plate groups comprises a plurality of first air guide plates (31), and the other group of air guide plate groups comprises a plurality of second air guide plates (32), each first air guide plate (31) is linearly and equidistantly distributed in the first connecting frame (11), and both ends of each first air guide plate (31) are rotationally arranged on the first connecting frame (11), each second air guide plate (32) is linearly and equidistantly distributed in the first connecting frame (11), and both ends of each second air guide plate (32) are rotationally arranged on the first connecting frame (11), the first air guide plate (31) and the second air guide plate (32) are used for guiding the flow direction of air flow into the frame body (1), and an adjusting assembly (33) is arranged in the frame body (1), the adjusting assembly (33) is connected with each first air guide plate (31) and each second air guide plate (32), and the adjusting assembly (33) is used for driving each first air guide plate (31) and each second air guide plate (32) to rotate.

5. The indirect air cooling tower heat dissipating device according to claim 4, wherein The adjusting assembly (33) comprises a first gear (331) arranged on the top end of the first guide vane (31) near the center of the first connecting frame (11), a second gear (332) arranged on the top end of the second guide vane (32) near the center of the first connecting frame (11), and the first gear (331) and the second gear (332) are engaged with each other, when the first gear (331) rotates, the first gear (331) engages with the second gear (332) and drives the second gear (332) to rotate oppositely with the first gear (331), and a second power unit (333) arranged on the top end of the frame body (1), the moving end of the second power unit (333) extends into the frame body (1) and is connected with the top end of the first guide vane (31) near the center of the first connecting frame (11), the second power unit (333) is used to drive the rotation of the first guide vane (31), and a chain transmission member (334) is arranged on each first guide vane (31), and another chain transmission member (334) is arranged on each second guide vane (32), when the first guide vane (31) rotates, the chain transmission member (334) connected with each first guide vane (31) drives each first guide vane (31) to rotate, and the chain transmission member (334) connected with each second guide vane (32) drives each second guide vane (32) to rotate.

6. The indirect air cooling tower heat dissipating device according to claim 1, wherein The frame body (1) is provided with a second connecting frame (12) near both sides of the intermediate cooling tower (6); The heat exchange component (2) comprises a plurality of heat dissipation fins (21) vertically arranged on the second connecting frame (12), and the heat dissipation fins (21) are linearly and equidistantly distributed in the second connecting frame (12), the heat dissipation fins (21) are used for transferring heat of the medium to be cooled, and the second connecting frame (12) is further provided with a heat exchange pipe (22), the heat exchange pipe (22) is arranged in an "S" shape and penetrates through each heat dissipation fin (21), and the heat exchange pipe (22) is used for conveying the medium to be cooled.

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