Heat dissipation device and heat dissipation system

Abstract

The present invention relates to a heat dissipation device comprising: a main body comprising: a top side, a bottom side, a first penetration part passed through the main body, thereby defining a penetration space; a valve port formed on an end of the main body; a first orifice formed on the top side and connected to the penetration space; a second orifice formed on the bottom side and connected to the penetration space; and a flow guide device arranged in the penetration space, wherein the flow guide device comprises: a box body having a guide space therein and comprising an input hole and an output hole; a motor arranged inside the box body; and a rotor arranged in the guide space and connected to the motor; a first flow guide plate arranged on the top side and formed a first guide channel thereof; a second flow guide plate arranged on the bottom side and formed a second guide channel thereof; and a heat exchange plate arranged on a side of the first guide plate relative to the main body.

Description

[Technical Field]

[0001] This invention relates to a heat dissipation device, and more particularly to a heat dissipation device for dissipating heat from the heat source of electronic devices. [Previous Technology]

[0002] Electronic devices perform extremely high-speed calculations and data processing during operation. During this process, the processor consumes electrical energy and generates heat. If the heat continues to accumulate and cannot be dissipated in time, the electronic device will activate its overheat protection mechanism to prevent damage and reduce the processor's processing speed, resulting in a decrease in the operating efficiency of the electronic device. In addition, when electronic devices operate at high temperatures for a long time, it can shorten the lifespan of the electronic components in the device or cause damage, or lead to system instability.

[0003] To solve the above problems, water-cooled heat dissipation devices are provided in the prior art. However, using water as a coolant can easily lead to pipe aging and leakage. Furthermore, since water is not a highly volatile substance, contact with electronic components can cause malfunctions, damage, or system problems. In addition, most existing heat dissipation devices rely on the natural flow of coolant, which is inefficient. When electronic components operate at high power, the heat dissipation rate cannot keep up with the heating rate, thus limiting the performance of the electronic components. In view of the above problems, a heat dissipation device with high liquid sealing, high safety, and high heat dissipation efficiency is urgently needed. [Summary of the Invention]

[0004] The problem to be solved by the present invention is to provide a heat dissipation device with high liquid sealing performance, high safety and high heat dissipation efficiency.

[0005] To achieve the above objectives, the present invention provides a heat dissipation device, comprising: a main body, including a top side and a bottom side opposite to the top side, and further comprising: a first through-hole, which is disposed through the main body to connect corresponding ends of the main body and define a through-space between the main body and the main body; a valve port formed at one end of the main body; a first through-hole formed at the top side and communicating with the valve port and the through-space respectively; a second through-hole formed at the bottom side and communicating with the through-space; a flow guiding device disposed in the through-space, comprising: a housing, the interior of which defines a flow guiding space, and comprising: an input port formed at one side of the housing, corresponding to the first through-hole and communicating with the flow guiding space; and an output port formed at the other side of the housing, corresponding to the second through-hole and communicating with the flow guiding space; a motor disposed inside the housing; and a rotor. The system is housed in the flow guiding space and rotatably connected to the motor to carry a first fluid from the input port through the flow guiding space towards the output port; a first flow guide plate is disposed on the top side of the main body, wherein the first flow guide plate forms a first flow guiding channel on one side of the main body, and one end of the first flow guiding channel is connected to the first through hole; a second flow guide plate is disposed on the bottom side of the main body, wherein the second flow guide plate forms a second flow guiding channel on one side in contact with the main body, wherein: one end of the second flow guiding channel is connected to the second through hole, and the other end is connected to the other end of the first flow guiding channel; and the first fluid system can flow in the second flow guiding channel and absorb heat and vaporize; and a heat exchange plate is disposed on the side of the first flow guide plate opposite to the main body to block the first flow guiding channel, wherein: the first fluid system can flow in the first flow guiding channel and dissipate heat through the heat exchange plate and condense into a liquid state.

[0006] More preferably, it further includes: a second through portion, which is through the main body and connects the top side and the bottom side, wherein: one end of the second through portion that contacts the top side is connected to one end of the first flow channel relative to the first perforation, and one end of the second through portion that contacts the bottom side is connected to one end of the second flow channel relative to the second perforation; a third perforation, which is through the position of the first flow plate corresponding to the second through portion, so that the second through portion is connected to the first flow channel; and a fourth perforation, which is through the position of the first flow plate corresponding to the first perforation, so that the first flow channel can be connected to the through space sequentially through the fourth perforation and the first perforation.

[0007] More preferably, the rotor includes: a rotating shaft; and at least one rotor blade disposed on the outer periphery of the rotating shaft.

[0008] More preferably, it further includes: a first connecting tube, which is inserted through the first through hole, and one end of the first connecting tube is connected to the fourth through hole and the other end is connected to the input hole; and a second connecting tube, which is inserted through the second through hole, and one end of the second connecting tube is connected to the output hole and the other end is connected to the end of the second flow channel near the second through hole.

[0009] More preferably, it further includes: a third flow channel formed on one side of the first flow plate relative to the first flow channel, wherein one end of the third flow channel is connected to the first through hole and the fourth through hole respectively; and a third through portion formed on the main body, wherein one end of the third through portion is connected to the valve port and the other end is connected to the top side of the main body and is connected to one end of the third flow channel relative to the first through hole.

[0010] More preferably, it further includes: a heating element formed on one side of the second guide plate relative to the main body; a plurality of first fins disposed on one side of the heat exchange plate relative to the main body, and each of the first fins is disposed on the heat exchange plate at equal intervals; or a first fan disposed on one side of the heat exchange plate relative to the main body.

[0011] More preferably, it further includes: a first sealing sheet disposed on the main body and correspondingly disposed at one end of the through space to close one end of the through space; and a second sealing sheet disposed on the main body and correspondingly disposed at the other end of the through space to close the other end of the through space.

[0012] The present invention further provides a heat dissipation system, comprising: a heat dissipation device, comprising: a main body, including a top side and a bottom side opposite to the top side, and further comprising: a first through-hole, which is through the main body to connect corresponding ends of the main body and define a through-space between the main body and the main body; a valve port formed at one end of the main body; a first through-hole formed at the top side and communicating with the valve port and the through-space respectively; a second through-hole formed at the bottom side and communicating with the through-space; a flow guiding device disposed in the through-space, comprising: a housing, the interior of which defines A flow guiding space is provided, comprising: an input port formed on one side of the housing, corresponding to the first through hole and communicating with the flow guiding space; and an output port formed on the other side of the housing, corresponding to the second through hole and communicating with the flow guiding space; a motor disposed inside the housing; and a rotor housed in the flow guiding space and rotatably connected to the motor to drive a first fluid to flow from the input port through the flow guiding space toward the output port; and a first guide plate disposed on the top side of the main body, wherein the first guide plate is formed opposite to one side of the main body. A first flow channel, one end of which is connected to the first perforation; a second flow plate, disposed on the bottom side of the main body, wherein a second flow channel is formed on the side of the second flow plate that contacts the main body, wherein one end of the second flow channel is connected to the second perforation and the other end is connected to the other end of the first flow channel; and the first flow system can flow within the second flow channel and absorb heat and vaporize; and a heat exchange plate, disposed on the side of the first flow plate opposite to the main body, to block the first flow channel, wherein the first flow system can flow within the first flow channel. The fluid flows and condenses into a liquid state by dissipating heat through the heat exchange plate; and a heat exchange device comprising: a first heat exchange box disposed on one side of the heat exchange plate opposite to the first guide plate, wherein a heat absorption channel is formed inside the first heat exchange box; a pump connected to one end of the heat absorption channel; and a second heat exchange box having a cooling channel formed inside, wherein one end of the cooling channel is connected to the pump, and the other end of the cooling channel is connected to the other end of the heat absorption channel, so that the pump can pressurize a second fluid and circulate the second fluid in the heat absorption channel and the cooling channel.

[0013] More preferably, it further includes: a first water pipe, the two ends of which are respectively connected to one end of the heat absorption channel and the pump; a second water pipe, one end of which is connected to the pump; a buffer device, which is connected to the end of the second water pipe relative to the pump; a third water pipe, the two ends of which are respectively connected to the buffer device and one end of the cooling channel; and a fourth water pipe, the two ends of which are respectively connected to the end of the cooling channel relative to the third water pipe and the end of the heat absorption channel relative to the first water pipe, wherein: the second flow system flows back to the heat absorption channel after sequentially passing through the first water pipe, the pump, the second water pipe, the buffer device, the third water pipe, the cooling channel, and the fourth water pipe from the heat absorption channel.

[0014] More preferably, it further includes: a plurality of second fins disposed on one side of the second heat exchange box, and each of the second fins is disposed on the second heat exchange box at equal intervals; or a second fan disposed on one side of the second heat exchange box.

[0015] The advantages of this invention over the prior art are as follows: This invention does not require the installation of a compressor to compress the refrigerant. It only requires the rotor to rotate in the flow guide space, allowing the first fluid to flow sequentially from the flow guide space through the output hole and the second perforation, first into the second flow guide channel; then from the second flow guide channel through the second through-hole and the third perforation, it flows into the first flow guide channel; finally, from the first flow guide channel through the fourth perforation and the first perforation, it flows back into the flow guide space, and this cycle is repeated. This achieves stable and efficient heat exchange with extremely low energy consumption. Furthermore, the excellent sealing of the main body prevents the flow guide device from shaking, ensuring the sealing of the first fluid and preventing leakage to the outside of the main body. Therefore, it ensures the safety of placing electronic devices on the second flow guide plate, preventing short circuits or damage to the electronic devices. Furthermore, this invention incorporates a heat exchange device mounted on the heat exchange plate to transfer the heat energy of the heat exchange plate to a distant location, preventing excessive heat accumulation at the heat exchange plate location. This ensures that the first fluid, after returning to the flow guide space, has been effectively cooled and can proceed to the next cycle of heat absorption and release. In summary, this invention can be used to cool high-power computer processors, allowing them to operate at high power without compromising performance.

Implementation Method

[0017] To make the above and / or other objects, effects, and features of the present invention more apparent and understandable, preferred embodiments are described in detail below:

[0018] The purpose of this invention is to provide a heat dissipation device (1), which, as shown in Figures 1A to 1B, includes: a main body (2), including a top side (3) and a bottom side (4) opposite to the top side (3), and further includes: a first through portion (5), which is through the main body (2) to connect the corresponding two ends of the main body (2) and define a through space (6) between the main body (2); a valve port (7), which is formed at one end of the main body (2); a first through hole (8), which is formed at the top side (3) and communicates with the valve port (7) and the through space (6) respectively; and a second through hole (9), which is formed at one end of the main body (2). On the bottom side (4), and connected to the through space (6); a flow guiding device (10) is disposed in the through space (6), comprising: a box (11), the interior of which defines a flow guiding space (12), and comprising: an input hole (13), formed on one side of the box (11), corresponding to the first through hole (8), and connected to the flow guiding space (12); and an output hole (14), formed on the other side of the box (11), corresponding to the second through hole (9), and connected to the flow guiding space (12); a motor (15), disposed inside the box (11); and a The rotor (16) is housed in the flow guiding space (12) and rotatably connected to the motor (15) to carry a first fluid from the input port (13) through the flow guiding space (12) towards the output port (14); a first guide plate (17) is disposed on the top side (3) of the main body (2), wherein the first guide plate (17) forms a first flow guiding channel (18) on one side of the main body (2), and one end of the first flow guiding channel (18) is connected to the first through hole (8); a second guide plate (19) is disposed on the bottom side (4) of the main body (2), wherein the second guide plate (19) A second flow channel (20) is formed on one side of the body (2) in contact with the main body (2), wherein: one end of the second flow channel (20) is connected to the second perforation (9), and the other end is connected to the other end of the first flow channel (18); and the first flow system can flow in the second flow channel (20) and absorb heat to vaporize; and a heat exchange plate (21) is disposed on one side of the first flow plate (17) opposite to the main body (2) to block the first flow channel (18), wherein: the first flow system can flow in the first flow channel (18) and dissipate heat through the heat exchange plate (21) to condense into a liquid state. In a preferred embodiment, the valve port (7) is used for injecting or extracting the first fluid.

[0019] More preferably, as shown in FIG1C, it further includes: a heating element (27) formed on one side of the second guide plate (19) relative to the main body (2), wherein: in order to form a large temperature difference between the heating element (27) disposed on the second guide plate (19) and the first fluid, so as to ensure that the first fluid absorbs heat and vaporizes the second guide plate (19) and the heating element (27) to achieve a cooling effect, wherein the first fluid system is a liquid or a gas-liquid coexisting refrigerant. Specifically, when the first fluid is injected into the flow space (12) through the first perforation (8), the rotor (16) will drive the first fluid to be transported towards the second flow channel (20). When the first fluid flows into the second flow channel (20) and receives the heat energy conducted by the heating element (27), the first fluid will vaporize and be transported towards the first flow channel (18) along the second perforation (22). When the vaporized first fluid flows into the first flow channel (18), its heat will be transferred towards the heat exchange plate (21) and condensed back into liquid state, and then flow back into the flow space (12) through the fourth perforation (24), thus completing one heat dissipation cycle. In a preferred embodiment, the heating element (27) is a heat source of an electronic component, preferably a computer processor, including: CPU or NPU, but not limited thereto.

[0020] More preferably, so that after the rotor (16) rotates, the first fluid in the first guide channel (18) can flow from the input hole (13) into the guide space (12), and at the same time, the first fluid in the guide space (12) can be conducted to the second guide channel (20) in the direction of the output hole (14), wherein the rotor (16) includes: a rotating shaft (46); and at least one rotor blade (47) disposed on the outer periphery of the rotating shaft (46). It can be understood that when the number of rotor blades (47) is multiple, each rotor blade (47) is arranged radially or spirally on the rotating shaft (46), and preferably, the number of rotor blades (47) can be 2 to 16, but is not limited thereto. In a preferred embodiment, in order to ensure the precise alignment of the first perforation (8) and the input hole (13), and the precise alignment of the second perforation (9) and the output hole (14), so as to ensure the airtightness of the first fluid flow and prevent the first fluid leakage, the embodiment further includes: a first connecting pipe (48) inserted through the first perforation (8), one end of the first connecting pipe (48) being connected to the fourth perforation (24) and the other end being connected to the input hole (13); and a second connecting pipe (49) inserted through the second perforation (9), one end of the second connecting pipe (49) being connected to the output hole (14) and the other end being connected to the end of the second flow channel (20) near the second perforation (9).

[0021] More preferably, in order to make the first flow channel (18), the second flow channel (20), and the flow space (12) interconnected and to enhance the sealing performance to avoid leakage of the first fluid, thereby preventing electronic components from getting damp, damaged, malfunctioning, or short-circuiting, it further includes: a second through part (22), which is through the main body (2) and connects the top side (3) and the bottom side (4), wherein: one end of the second through part (22) in contact with the top side (3) is connected to one end of the first flow channel (18) relative to the first through hole (8), and the second through part (22) One end of the first guide plate (17) in contact with the bottom side (4) is connected to one end of the second guide channel (20) relative to the second through hole (9); a third through hole (23) is inserted into the position corresponding to the first guide plate (17) and the second through part (22), so that the second through part (22) is connected to the first guide channel (18); and a fourth through hole (24) is inserted into the position corresponding to the first guide plate (17) and the first through hole (8), so that the first guide channel (18) can be connected to the through space (6) in sequence through the fourth through hole (24) and the first through hole (8).

[0022] More preferably, in order to allow the liquid or gaseous first fluid to be injected into the first guide channel (18), the guide space (12), or the second guide channel (20); or to allow the first fluid to be extracted from the first guide channel (18), the guide space (12), or the second guide channel (20), the method further includes: a third guide channel (25) formed on one side of the first guide plate (17) relative to the first guide channel (18), wherein one end of the third guide channel (25) is connected to the first perforation (8) and the fourth perforation (24); and a third through portion (26) formed on the main body (2), wherein one end of the third through portion (26) is connected to the valve port (7), and the other end is connected to the top side (3) of the main body (2), and is connected to one end of the third guide channel (25) relative to the first perforation (8).

[0023] More preferably, after the first fluid passes through the second guide channel (20) and absorbs the heat energy conducted from the heating element (27) or electronic components to the second guide plate (19), in order to allow the first fluid to continue flowing to the first guide channel (18) on the first guide plate (17), the heat exchange plate (21) can quickly transfer the heat of the first fluid, so that the first fluid can be cooled and then continuously flow back to the guide space (12) and repeat the heating and cooling cycle. As shown in FIG1C, it further includes: a plurality of first fins (28) disposed on one side of the heat exchange plate (21) relative to the main body (2), and each of the first fins (28) is disposed on the heat exchange plate (21) at equal intervals. It can be understood that the first fins (28) can increase the contact area with air, thereby accelerating the cooling rate of the first fluid. In a preferred embodiment, to enhance air convection and increase the heat exchange rate between the heat exchange plate (21) and the first fluid, the system further includes a first fan (29) disposed on one side of the heat exchange plate (21) opposite to the main body (2). In another preferred embodiment, the system further includes a first sealing plate (30) disposed on the main body (2) and correspondingly disposed at one end of the through space (6) to close one end of the through space (6); and a second sealing plate (31) disposed on the main body (2) and correspondingly disposed at the other end of the through space (6) to close the other end of the through space (6).

[0024] Another object of the present invention is to provide a heat dissipation system (44), which, as shown in FIG2A to 2B, includes: a heat dissipation device (1), comprising: a main body (2), comprising a top side (3) and a bottom side (4) relative to the top side (3), and further comprising: a first through portion (5), which is through the main body (2) to connect the corresponding two ends of the main body (2) and define a through space (6) between the main body (2); a valve port (7), which is formed at one end of the main body (2); a first through hole (8), which is formed at the top side (3) and communicates with the valve port (7) and the through space (6) respectively; a second through hole (9), which is formed at the bottom side (4) and communicates with the top side (3) and the bottom side (4) respectively. The device is connected to the through-space (6); a flow guiding device (10) is disposed in the through-space (6), which includes: a box (11) that defines a flow guiding space (12) inside, and includes: an input hole (13) formed on one side of the box (11), corresponding to the first through hole (8) and connected to the flow guiding space (12); and an output hole (14) formed on the other side of the box (11), corresponding to the second through hole (9) and connected to the flow guiding space (12); a motor (15) disposed inside the box (11); and a rotor (16) housed in the flow guiding space (12) and rotatably connected to the motor (15). A first fluid flows from the input hole (13) through the guide space (12) towards the output hole (14); a first guide plate (17) is disposed on the top side (3) of the main body (2), wherein the first guide plate (17) forms a first guide channel (18) on one side of the main body (2), and one end of the first guide channel (18) is connected to the first through hole (8); a second guide plate (19) is disposed on the bottom side (4) of the main body (2), wherein the side of the second guide plate (19) in contact with the main body (2) forms a second guide channel (20), wherein: one end of the second guide channel (20) is connected to the second through hole (9), and the other end of the second guide channel (20) is connected to the second through hole (9), and the other end of the second guide channel (20) is connected to the first through hole (9), and the other end of the second guide channel (20) is connected to the first through hole (9), and the other end of the second guide channel (20) is connected to the first through hole (9), and the other end of the second guide channel (20) is connected to the first through hole (9), and the other end of the second guide channel (20) is connected to the first through hole (9), and the other end of the second guide channel (20) is connected to the first through hole (24 ... One end is connected to the other end of the first flow channel (18); and the first flow system can flow in the second flow channel (20) and absorb heat and vaporize; and a heat exchange plate (21) is disposed on one side of the first flow plate (17) relative to the main body (2) to block the first flow channel (18), wherein: the first flow system can flow in the first flow channel (18) and condense into liquid by dissipating heat through the heat exchange plate (21); and a heat exchange device (32) includes: a first heat exchange box (33) is disposed on one side of the heat exchange plate (21) relative to the first flow plate (17), wherein a heat absorption channel (34) is formed inside the first heat exchange box (33);A pump (35) is connected to one end of the heat absorption channel (34); and a second heat exchange box (36) has a cooling channel (37) formed inside, wherein one end of the cooling channel (37) is connected to the pump (35), and the other end of the cooling channel (37) is connected to the other end of the heat absorption channel (34), so that the pump (35) can pressurize a second fluid and circulate the second fluid in the heat absorption channel (34) and the cooling channel (37).

[0025] More preferably, in order to guide the heated second fluid to a position away from the heat exchange plate (21) before cooling, so as to avoid excessive heat concentration on the heat exchange plate (21), the system further includes: a first water pipe (38), the two ends of which are respectively connected to one end of the heat absorption channel (34) and the pump (35); a second water pipe (39), one end of which is connected to the pump (35); a buffer device (40), which is connected to one end of the second water pipe (39) relative to the pump (35); and a third water pipe (41), the two ends of which are respectively connected to the buffer device (40). The system includes a cooling channel (37) connected to one end of the cooling channel (37); and a fourth water pipe (42) whose two ends are respectively connected to the end of the cooling channel (37) relative to the third water pipe (41) and the end of the heat absorption channel (34) relative to the first water pipe (38), wherein the second flow system flows from the heat absorption channel (34) sequentially through the first water pipe (38), the pump (35), the second water pipe (39), the buffer device (40), the third water pipe (41), the cooling channel (37), and the fourth water pipe (42), and then flows back to the heat absorption channel (34). In a preferred embodiment, the buffer device (40) is used to store the second fluid, but is not limited thereto.

[0026] More preferably, in order to improve the cooling efficiency of the second fluid, it further includes: a plurality of second fins (43) disposed on one side of the second heat exchange box (36), and each of the second fins (43) is disposed at equal intervals on the second heat exchange box (36); or a second fan (45) disposed on one side of the second heat exchange box (36). In a preferred embodiment, a plurality of second fins (43) are first formed on one side of the second heat exchange box (36), and then a second fan (45) is disposed on the side of the plurality of second fins (43) opposite to the second heat exchange box (36) to significantly improve the heat exchange effect between the second heat exchange box (36) and the second fluid. In another preferred embodiment, the second fluid includes liquid or gas-liquid coexisting water, propylene glycol, or general coolant, but is not limited thereto.

[0027] The advantages of the present invention over the prior art are as follows: The present invention does not require the installation of a compressor to compress the refrigerant. It only requires the rotor (16) to rotate in the flow guide space (12) so that the first fluid can flow from the flow guide space (12) sequentially through the output hole (14) and the second through hole (9) to the second flow guide channel (20); then from the second flow guide channel (20) sequentially through the second through part (22) and the third through hole (23) to the first flow guide channel (18); finally from the first flow guide channel (18) sequentially through the fourth through hole (24), the first through hole (8) and the input hole (13) back to the flow guide space (12) and repeat this cycle. This can achieve stable and efficient heat exchange with extremely low energy consumption. Furthermore, the excellent sealing of the main body (2) prevents the flow guiding device (10) from shaking, ensuring the sealing of the first fluid and preventing it from leaking to the outside of the main body (2). Therefore, it ensures the safety of placing electronic devices on the second flow guiding plate (19) to prevent short circuits or damage to the electronic devices. In addition, the present invention further installs a heat exchange device (32) on the heat exchange plate (21) to transfer the heat energy of the heat exchange plate (21) to a distance again, so as to avoid excessive heat accumulation at the location of the heat exchange plate (21). This ensures that the first fluid has been cooled after flowing back to the flow guiding space (12) and can carry out the next round of heat absorption and release cycle. In summary, the present invention can be used to cool down high-power computer processors, so that the computer processors can operate at high power without reducing their performance.

[0028] However, the above description is merely a preferred embodiment of the present invention and should not be construed as limiting the scope of the invention. Any simple equivalent changes and modifications made in accordance with the claims and description of the invention are still within the scope of the patent. Furthermore, any embodiment or claim of the present invention does not need to achieve all the objectives, advantages, or features disclosed in the invention. In addition, the abstract and headings are merely for assisting in patent document searches and are not intended to limit the scope of the invention. Furthermore, the terms "first," "second," etc., used in the specification are only used to indicate the names of elements and are not used to limit the upper or lower limits of the number of components. [Simplified Explanation of the Diagram]

[0016] Figure 1A is an exploded three-dimensional view to illustrate the structural features of the heat dissipation device; Figure 1B is an exploded three-dimensional view to illustrate the structural features of the flow guiding device; Figure 1C is an exploded three-dimensional view to illustrate the structural features of the heat dissipation device; Figure 2A is an exploded three-dimensional view to illustrate the structural features of the heat dissipation system; Figure 2B is an exploded three-dimensional view to illustrate the structural features of the heat exchange device.

Claims

1. A heat dissipation device, comprising: a main body including a top side and a bottom side opposite the top side, and further comprising: a first through-hole portion through the main body to connect corresponding ends of the main body and define a through-space between the main body and the first through-hole portion; a valve port formed at one end of the main body; a first through-hole formed at the top side and communicating with the valve port and the through-space; a second through-hole formed at the bottom side and communicating with the through-space; and a flow guiding device disposed in the through-space, comprising: a housing defining a flow guiding space inside, and comprising: an input port formed at one side of the housing, corresponding to the first through-hole and communicating with the flow guiding space; and an output port formed at the other side of the housing, corresponding to the second through-hole and communicating with the flow guiding space; A motor is disposed inside the housing; and a rotor is housed in the flow guiding space and rotatably connected to the motor to carry a first fluid from the input port through the flow guiding space toward the output port; a first guide plate is disposed on the top side of the main body, wherein the first guide plate forms a first flow guiding channel on one side of the main body, and one end of the first flow guiding channel is connected to the first through hole; a second guide plate is disposed on the bottom side of the main body, wherein the side of the second guide plate in contact with the main body forms a second flow guiding channel, wherein: One end of the second flow channel is connected to the second perforation, and the other end is connected to the other end of the first flow channel; and the first flow system can flow in the second flow channel and absorb heat and vaporize. A heat exchange plate is disposed on one side of the first guide plate relative to the main body to block the first guide channel, wherein the first flow system can flow in the first guide channel and condense into a liquid state by dissipating heat through the heat exchange plate.

2. The heat dissipation device as claimed in claim 1, further comprising: a second through-hole portion, which passes through the main body and connects the top side and the bottom side, wherein: One end of the second through-hole that contacts the top side is connected to one end of the first flow channel relative to the first through-hole, and one end of the second through-hole that contacts the bottom side is connected to one end of the second flow channel relative to the second through-hole; a third through-hole is provided at the position corresponding to the first flow guide plate and the second through-hole, so that the second through-hole is connected to the first flow guide channel; and a fourth through-hole is provided at the position corresponding to the first flow guide plate and the first through-hole, so that the first flow guide channel can be connected to the through-hole space in sequence through the fourth through-hole and the first through-hole.

3. The heat dissipation device as claimed in claim 1, wherein the rotor comprises: a rotating shaft; and at least one rotor blade disposed on the outer periphery of the rotating shaft.

4. The heat dissipation device as claimed in claim 2, further comprising: a first connecting pipe inserted through the first through hole, wherein one end of the first connecting pipe is connected to the fourth through hole and the other end is connected to the input hole; and a second connecting pipe inserted through the second through hole, wherein one end of the second connecting pipe is connected to the output hole and the other end is connected to the end of the second flow channel near the second through hole.

5. The heat dissipation device as claimed in claim 2, further comprising: a third flow channel formed on one side of the first flow guide plate opposite to the first flow channel, wherein one end of the third flow channel is connected to the first through hole and the fourth through hole respectively; and a third through portion formed on the main body, wherein one end of the third through portion is connected to the valve port and the other end is connected to the top side of the main body and is connected to one end of the third flow channel opposite to the first through hole.

6. The heat dissipation device as claimed in claim 1, further comprising: a heat-generating element formed on one side of the second guide plate relative to the main body; a plurality of first fins disposed on one side of the heat exchange plate relative to the main body, and each of the first fins being disposed at equal intervals on the heat exchange plate; or a first fan disposed on one side of the heat exchange plate relative to the main body.

7. The heat dissipation device as claimed in claim 1, further comprising: a first sealing sheet disposed on the main body and correspondingly disposed at one end of the through space to close one end of the through space; and a second sealing sheet disposed on the main body and correspondingly disposed at the other end of the through space to close the other end of the through space.

8. A heat dissipation system, comprising: a heat dissipation device, comprising: a main body, including a top side and a bottom side opposite to the top side, and further comprising: a first through-hole, which is disposed through the main body to connect corresponding ends of the main body and define a through-space between the main body and the main body; a valve port formed at one end of the main body; a first through-hole formed at the top side and communicating with the valve port and the through-space respectively; a second through-hole formed at the bottom side and communicating with the through-space; a flow guiding device disposed in the through-space, comprising: a housing, the interior of which defines a flow guiding space, and comprising: an input port formed at one side of the housing, corresponding to the first through-hole and communicating with the flow guiding space; and an output port formed at the other side of the housing, corresponding to the second through-hole and communicating with the flow guiding space; A motor is disposed inside the housing; and a rotor is housed in the flow guiding space and rotatably connected to the motor to carry a first fluid from the input port through the flow guiding space toward the output port; a first guide plate is disposed on the top side of the main body, wherein the first guide plate forms a first flow guiding channel on one side of the main body, and one end of the first flow guiding channel is connected to the first through hole; a second guide plate is disposed on the bottom side of the main body, wherein the side of the second guide plate in contact with the main body forms a second flow guiding channel, wherein: One end of the second flow channel is connected to the second perforation, and the other end is connected to the other end of the first flow channel; and the first flow system can flow in the second flow channel and absorb heat and vaporize. The system includes a heat exchange plate disposed on one side of the first guide plate relative to the main body to block the first guide channel, wherein the first fluid system can flow within the first guide channel and condense into a liquid state by dissipating heat through the heat exchange plate; and a heat exchange device comprising: a first heat exchange box disposed on one side of the heat exchange plate relative to the first guide plate, wherein a heat absorption channel is formed inside the first heat exchange box; a pump connected to one end of the heat absorption channel; and a second heat exchange box having a cooling channel formed inside, wherein one end of the cooling channel is connected to the pump and the other end of the cooling channel is connected to the other end of the heat absorption channel, so that the pump can pressurize a second fluid and circulate the second fluid in the heat absorption channel and the cooling channel.

9. The heat dissipation system as claimed in claim 8, further comprising: a first water supply pipe, the two ends of which are respectively connected to one end of the heat absorption channel and the pump; a second water supply pipe, one end of which is connected to the pump; a buffer device connected to the end of the second water supply pipe opposite to the pump; a third water supply pipe, the two ends of which are respectively connected to the buffer device and one end of the cooling channel; and a fourth water supply pipe, the two ends of which are respectively connected to the end of the cooling channel opposite to the third water supply pipe and the end of the heat absorption channel opposite to the first water supply pipe, wherein: The second flow system flows back to the heat absorption channel after passing sequentially through the first water pipe, the pump, the second water pipe, the buffer device, the third water pipe, the cooling channel, and the fourth water pipe.

10. The heat dissipation system as claimed in claim 8, further comprising: a plurality of second fins disposed on one side of the second heat exchange box, and each of the second fins being disposed at equal intervals on the second heat exchange box; or a second fan disposed on one side of the second heat exchange box.

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