DE202018100045U1 - Turbulator group having water cooler construction with intermediate layers - Google Patents

Abstract

A swirl grouped water cooler assembly having intermediate layers (2), comprising: a liquid receiving plate group (20) comprising: a first liquid receiving plate (201) having at least one inlet (2017), a first spacer plate (2013) in the first liquid receiving plate (201) wherein a first liquid chamber (2014a) and a second liquid chamber (2014b) continuously connected to at least the inlet (2017) are separated from each other by the first spacer plate, wherein a working liquid (4) is introduced into the at least one inlet (2017) a second fluid receiving plate (202) having at least one outlet (2027) with a second spacer plate (2023) disposed in the second fluid receiving plate (202), a third fluid chamber (2024a) and a fourth fluid chamber (2024a) Liquid chamber (2024b) through the second spacer plate of wherein the third fluid chamber (2024a) is continuously connected to at least one outlet (2027); a first fluidization group (21) optionally located in one of the following fluid chambers: first, second, third and fourth fluid chambers (2014a, 2014b, 2024a, 2024b); anda connecting pipe group (27) having a first connecting pipe (271), a second connecting pipe (272) and a third connecting pipe (273), the first connecting pipe (271) being connected to the second liquid chamber (2014b) and the fourth liquid chamber (2024b) wherein the second connection pipe (272) is continuously connected to the fourth liquid chamber (2024b) and the first liquid chamber (2014a), the third connection pipe (273) being connected to the first liquid chamber (2014a) and the third liquid chamber (2024a). is consistently connected.

Description

Field of the invention

The present invention relates to a swirl-type water cooler assembly having intermediate layers, and more particularly to a swirl-type water cooler assembly with which an excellent heat-dissipating effect can be achieved.

State of the art

During operation of a computer, its internal components generate a large amount of heat. Accordingly, the operational efficiency and reliability of a computer are largely determined by a well-functioning heat dissipation system. Of all the heat-producing components, the heat dissipation of the central processing unit (CPU), which has the highest workload, and the graphics processor (GPU) is the most problematic. Above all, the images of various current computer games are becoming ever more detailed and the functions of computer-aided signing software increasingly powerful. During operation of such software, the CPU and graphics processor often operate in high load condition. At the same time a large amount of heat is generated. If this heat can not be distributed effectively, the performance of the CPU or graphics processor will decrease. In severe cases, the CPU or graphics processor may be damaged or its lifetime greatly reduced.

In order to reduce the operating temperature of the heat-generating electronic components, a water cooler is connected to a water pump via two water supply lines in common water cooling devices and a water block is applied to a heat-dissipating element (eg central processing unit). The cooling fluid (or working fluid) is driven by the water pump to flow to the radiator for cyclic cooling to ensure rapid heat dissipation. Please refer 1 , The conventional water cooler 1 consists of a plurality of cooling fins 11, a plurality of flat tubes 12 and two side tanks 13. The respective cooling fins 11 are arranged between the corresponding adjacent straight flat tubes 12. The two side tanks 13 are connected by soldering to the two sides of the cooling fins 11 and the straight flat tubes 12. The two side tanks 13, the cooling fins 11 and the straight flat tubes 12 are connected to each other to form a water cooler 1. Here, one of the side tanks 13 is provided with a water inlet 131 and a water outlet 132, with the water inlet 131 and the water outlet 132 respectively are connected to the two opposite water supply lines (not shown).

The introduced via the water inlet 131 working fluid flows into a side tank 13 and then quickly and straight through the straight flat tubes 12 to the other side tank 13, then it flows through the straight flat tubes 12 to the side tank 13, finally, it is discharged through the water outlet 132 , Thus, the time in which the heated working fluid flows through the water cooler 1 is too short, and accordingly, the heat exchange time between the heated working fluid and the water radiator is not long, resulting in the conventional radiator having an adverse heat dissipation effect on the heated working fluid which in turn causes the problem of poor cooling efficiency. Further, the overall structure of the conventional water radiator can not be changed according to the internal space structure of an electronic device. When the conventional water cooler is housed in an electronic device, a separate space for housing the conventional water cooler must be provided in this electronic device.

Object of the invention

It is an object of the present invention to provide a swirl group-type water cooler assembly having an excellent heat dissipation effect.

It is another object of the present invention to provide a swirler-type intercooler structure in which a plurality of liquid receiving plates are stacked at a distance, and one spacer plate is disposed in the respective liquid receiving plate group, and a swirling group having a swirling effect is accommodated in at least one liquid chamber of the two separate liquid chambers in order to effectively increase the residence time of the working liquid, thereby effectively improving the heat exchange efficiency.

It is a further object of the present invention to provide a swirl-type water cooler assembly with intermediate layers in which, as the working fluid flows through the first and second liquid receiving plates and through the first, second and third connecting tubes, heat dissipation between the cooled working liquid and the heat exchanger for heat dissipation heated working fluid takes place by means of the spacer plate located in the liquid receiving plate group.

It is another object of the present invention to provide a swirl-type water cooler assembly with intermediate layers in which the number of liquid-receiving plates and the connection positions of the liquid-receiving plates can be flexibly adjusted in advance according to the indoor situation of an electronic device to be arranged in the interior of the electronic device to achieve an adjustment.

It is a further object of the present invention to provide a swirl group water cooler assembly having intermediate layers in which any or all of the plurality of liquid receiving plates are made of titanium material. By virtue of the higher strength, light weight and good thermal conductivity of the titanium material, the heat transfer efficiency of the invention can be effectively improved and the overall weight of the invention minimized.

To achieve the above-mentioned objects, the present invention provides a swirl-type intercooler structure comprising a liquid receiving plate group, a first swirling group, and a connecting tube group, the liquid receiving plate group having a first liquid receiving plate and a second liquid receiving plate, the first liquid receiving plate having at least one inlet wherein a first spacer plate is disposed in the first fluid receiving plate, wherein a first fluid chamber and a second fluid chamber continuously connected to at least the inlet are separated by the first spacer plate, with a working fluid flowing into the second fluid chamber via the at least one inlet; second liquid receiving plate has at least one outlet, wherein a second spacer plate in the two a fourth liquid chamber and a third liquid chamber continuously connected to at least the outlet are separated from each other by the second spacer plate, wherein the first swirling group is optionally arranged in one of the following liquid chambers: first, second, third and fourth liquid chamber the connection pipe group includes a first connection pipe, a second connection pipe and a third connection pipe, the first connection pipe being continuously connected to the second liquid chamber and the fourth liquid chamber, the second connection pipe being continuously connected to the fourth liquid chamber and the first liquid chamber, the third one Connecting pipe with the first liquid chamber and the third liquid chamber is connected continuously. By the configuration of the swirler having interlayer water cooler structure of the present invention, an excellent heat dissipating effect and further effectively the effect of prolonging the time in which the working fluid flows through interlayer water cooler assembly having the swirling group can be obtained.

• 1 eine schematische perspektivische Darstellung des herkömmlichen Wasserkühlers;
• 2 eine schematische perspektivische Darstellung eines Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 2A eine schematische Schnittdarstellung des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 3A eine schematische perspektivische Explosionsansicht des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 3B eine weitere schematische perspektivische Explosionsansicht des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 4 eine teilweise vergrößerte schematische perspektivische Darstellung gemäß den 3A, 5A, 7A und 8A;
• 5A eine schematische perspektivische Explosionsansicht einer ersten Abwandlung des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 5B eine schematische Schnittdarstellung der ersten Abwandlung des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 6A eine schematische perspektivische Explosionsansicht einer zweiten Abwandlung des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 6B eine weitere schematische perspektivische Explosionsansicht der zweiten Abwandlung des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 6C eine schematische Schnittdarstellung der zweiten Abwandlung des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 6D eine teilweise vergrößerte schematische perspektivische Darstellung gemäß den 6A und 9A;
• 7A eine schematische perspektivische Explosionsansicht einer dritten Abwandlung des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 7B eine schematische Schnittdarstellung der dritten Abwandlung des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 8A eine schematische perspektivische Explosionsansicht einer vierten Abwandlung des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 8B eine schematische Schnittdarstellung der vierten Abwandlung des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 9A eine schematische perspektivische Explosionsansicht einer fünften Abwandlung des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 9B eine weitere schematische perspektivische Explosionsansicht der fünften Abwandlung des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 9C eine schematische Schnittdarstellung der fünften Abwandlung des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 10 eine schematische perspektivische Darstellung einer sechsten Abwandlung des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe;
• 11 eine schematische perspektivische Darstellung einer weiteren sechsten Abwandlung des Ausführungsbeispiels der erfindungsgemäßen Flüssigkeitsaufnahmeplattengruppe.

In the following, the invention will be described in more detail in a schematic representation with reference to the figures. It shows:

• 1 a schematic perspective view of the conventional water cooler;
• 2 a schematic perspective view of an embodiment of the liquid receiving plate group according to the invention;
• 2A a schematic sectional view of the embodiment of the liquid receiving plate group according to the invention;
• 3A a schematic exploded perspective view of the embodiment of the liquid receiving plate group according to the invention;
• 3B another schematic exploded perspective view of the embodiment of the liquid receiving plate group according to the invention;
• 4 a partially enlarged schematic perspective view according to the 3A . 5A . 7A and 8A ;
• 5A a schematic exploded perspective view of a first modification of the embodiment of the liquid receiving plate group according to the invention;
• 5B a schematic sectional view of the first modification of the embodiment of the liquid receiving plate group according to the invention;
• 6A a schematic exploded perspective view of a second modification of the embodiment of the liquid receiving plate group according to the invention;
• 6B another schematic exploded perspective view of the second modification of the embodiment of the liquid receiving plate group according to the invention;
• 6C a schematic sectional view of the second modification of the embodiment of the liquid receiving plate group according to the invention;
• 6D a partially enlarged schematic perspective view according to the 6A and 9A ;
• 7A a schematic exploded perspective view of a third modification of the embodiment of the liquid receiving plate group according to the invention;
• 7B a schematic sectional view of the third modification of the embodiment of the liquid receiving plate group according to the invention;
• 8A a schematic exploded perspective view of a fourth modification of the embodiment of the liquid receiving plate group according to the invention;
• 8B a schematic sectional view of the fourth modification of the embodiment of the liquid receiving plate group according to the invention;
• 9A a schematic exploded perspective view of a fifth modification of the embodiment of the liquid receiving plate group according to the invention;
• 9B another schematic exploded perspective view of the fifth modification of the embodiment of the liquid receiving plate group according to the invention;
• 9C a schematic sectional view of the fifth modification of the embodiment of the liquid receiving plate group according to the invention;
• 10 a schematic perspective view of a sixth modification of the embodiment of the liquid receiving plate group according to the invention;
• 11 a schematic perspective view of a further sixth modification of the embodiment of the liquid receiving plate group according to the invention.

Detailed description of the embodiments

In order to provide a complete understanding of the features of the structure and functions of the present invention, preferred embodiments will now be described in detail with reference to the accompanying drawings.

The present invention relates to a swirl-type water cooler assembly with intermediate layers. The 2 . 2A . 3A and 3B each show a schematic perspective view, a schematic sectional view, a schematic exploded perspective view and another schematic exploded perspective view of the embodiment of the liquid receiving plate group according to the invention; 4 shows a partially enlarged schematic perspective view according to 3A , As shown in the figures, the swirling group according to the invention comprises water cooler assembly with intermediate layers 2 a liquid receiving plate group 20 , a first swirling group 21 and a connecting pipe 27 , The fluid intake plate group 20 includes a first fluid receiving plate 201 and a second fluid receiving plate 202 wherein the first and second fluid receiving plates 201 . 202 made of gold, silver, copper, iron, titanium, aluminum, stainless steel or alloys thereof, with the first fluid receiving plate 201 a first top plate 2011 , a first lower plate 2012 , at least one inlet 2017 , a first through hole 2015a and a first spacer plate 2013 includes. The spacer plate 2013 is in the first fluid intake plate 201 arranged and located between the first upper plate 2011 and the first lower plates 2012 wherein the first fluid receiving plate 201 through the first spacer plate 2013 in a first liquid chamber 2014a and a second liquid chamber 2014b is divided, wherein the second liquid chamber 2014b with the at least one inlet 2017 is consistently connected. Furthermore, the first spacer plate 2013 a first through hole 20131 on, with the first through hole 20131 through the first spacer plate 2013 passes through and through the first upper plate 2011 passing through the first through hole 2015a and the second liquid chamber 2014b opposite, whereby the first connecting pipe 271 the connection pipe group 27 can be passed through the first through hole.

In the present embodiment, the second liquid chamber 2014b and the first fluid chamber 2014a each between the first lower plate 2012 and the first spacer plate 2013 and between the first top plate 2011 and the first spacer plate 2013 provided, ie through the first spacer plate 2013 is the interior of the first liquid receiving plate 201 into two separate chambers, namely the second fluid chamber 2014b and the first fluid chamber 2014a , subdivided, wherein the second liquid chamber 2014b and the first fluid chamber 2014a not connected to each other consistently. The number of inlets shown in the present embodiment 2017 is one, this being on one side of the first fluid receiving plate 201 is provided. A working fluid 4 will be over the inlet 2017 into the second fluid chamber 2014b introduced. In the present embodiment, the working fluid 4 a liquid Ketone. However, the invention is not limited to liquid ketone. As long as the liquid has a heat removing effect, it can be used as a working liquid suitable for the present invention 4 be used, such as. As pure water, inorganic compounds, alcohols, ketones, liquid metals, refrigerants or organic compounds.

The second fluid intake plate 202 is spaced above the first liquid receiving plate 201 arranged. The second fluid receiving plate 202 includes a second upper plate 2021 , a second lower plate 2022 , at least one outlet 2027 , a second through hole 2025a and a second spacer plate 2023 , The second spacer plate 2023 is in the second fluid intake plate 202 arranged and located between the second upper plate 2021 and the second lower plate 2022 wherein the second fluid receiving plate 202 through the second spacer plate 2023 in a third fluid chamber 2024a and a fourth fluid chamber 2024B is divided, wherein the third liquid chamber 2024a with the at least one outlet 2027 is connected continuously, the fourth fluid chamber 2024B with the through the second lower plate 2022 continuous second through hole 2025a is continuously connected, wherein on the upper and lower sides of the second spacer plate 2023 no flow path is provided. In the present embodiment, the fourth liquid chamber 2024B and the third fluid chamber 2024a each between the second lower plate 2022 and the second spacer plate 2023 and between the second spacer plate 2023 and the second spacer plate 2023 provided, ie by the second spacer plate 2023 is the interior of the second fluid receiving plate 202 into two separate chambers, namely the fourth fluid chamber 2024B and the third liquid chamber 2024a, the fourth liquid chamber 2024B and the third fluid chamber 2024a not connected to each other consistently.

The number of outlets shown in the present embodiment 2027 is one, this being on one side of the second fluid receiving plate 202 provided and with the third fluid chamber 2024a is consistently connected. The connection pipe group 27 has a first connecting pipe 271 , a second connecting pipe 272 and a third connecting pipe 273 on, wherein the first, second and third connecting pipe 271 . 272 . 273 consist of gold, silver, copper, iron, titanium, aluminum, stainless steel or alloys thereof, wherein in the present embodiment, the first, second and third connecting pipe 271 . 272 . 273 in the space of the liquid receiving plate group 20 are located. Here is an end of the first connecting pipe 271 corresponding to the first through hole 2015a and the first through hole 20131 passed and into the second fluid chamber 2014b used, with the other end of the first connecting pipe 271 corresponding to the second through hole 2025a is continuously connected, wherein the first connecting pipe 271 over the first through hole 2015a and the second through hole 2025a with the second fluid chamber 2014b and the fourth fluid chamber 2024B is consistently connected. In this case, a tight connection between the outer circumference of the first connecting pipe 271 and the first through hole 2015a or the first through hole 20131 For example, by laser welding, welding or sealing rings are made, so as to prevent the in the first fluid chamber 2014a and the second liquid chamber 2014b located working fluid flows to the outside. In the present embodiment, the liquid receiving plate group 20 and the connection tube group 27 not limited to the above-described two liquid receiving plates and the above-described three connecting tubes. In actual practice, the number of up-and-down stacked liquid receiving plates may be increased depending on cooling requirements (such as three layers of liquid receiving plates or four layers of liquid receiving plates) or the number of connecting tubes disposed between the layers of liquid receiving plates may be increased (such as three connecting pipes or six connecting pipes).

Furthermore, the first fluid intake plate comprises 201 a third through hole 2015b and a fourth through hole 2015c wherein the third and fourth through holes 2015b . 2015c respectively through the corresponding first upper plate 2011 of the first through-hole 2015a go through, with one end of the second connecting pipe 272 and the third connecting pipe 273 each with the fourth through hole 2015c and the third through hole 2015b are continuously connected, wherein the second and third connecting pipe 272 . 273 with the first fluid chamber 2014a consistently connected. Furthermore, the second fluid intake plate comprises 202 a fifth through hole 2025b and a sixth through hole 2025c wherein the fifth and sixth through holes 2025b , 2025c respectively through the corresponding second lower plate 2022 the second through hole 2025a go through, the other end of the second connecting pipe 272 with the sixth through hole 2025c is continuously connected, wherein the second connecting pipe 272 with the first fluid chamber 2014a and the fourth fluid chamber 2024B is consistently connected. Furthermore, the second spacer plate 2023 a second through-hole 20231 on, with the second through-hole 20231 through the second spacer plate 2023 passes through and the fifth through hole 2025b and the third liquid chamber 2024a opposite, whereby the third connecting pipe 273 can be passed through the second through hole. The other end of the third connecting pipe 273 is through the fifth through hole 2025b and the second through-hole 20231 passed through and to the third fluid chamber 2024a plugged in, with the third connecting pipe 273 with the first fluid chamber 2014a and the third fluid chamber 2024a is consistently connected. Here, a tight connection between the outer circumference of the third connecting pipe 273 and the fifth through hole 2025b or the second through hole 20231 For example, by laser welding, welding or sealing rings are made, so as to prevent the third in the liquid chamber 2024a and the fourth fluid chamber 2024B working fluid 4 flows outward.

Furthermore, the water cooler assembly includes intermediate layers 2 a second vortex group 22 , The first and second swirl groups 21 . 22 offer a swirl and support effect. The first and second swirl groups 21 , 22 are made of gold, silver, copper, iron, titanium, aluminum, stainless steel or alloys thereof. The first swirl group 21 and the second swirl group 22 are each in the first fluid chamber 2014a or the second fluid chamber 2014b accommodated. In the present embodiment, the upper end and the lower end are in the first liquid chamber 2014a located first swirling group 21 each with the inside of the first top plate 2011 and with one side of the first spacer plate 2013 in contact, and the upper end and the lower end of the in the second liquid chamber 2014b located second Verwirbelungsgruppe 22 each stand with the other side of the first spacer plate 2013 and with the inside of the first lower plate 2012 in contact. In one embodiment, the first swirl group 21 the first fluid chamber 2014a be omitted, so in the second fluid chamber 2014b only the second vortex group 22 is arranged. In another embodiment, the second swirl group 22 the second fluid chamber 2014b also be omitted, so in the first fluid chamber 2014a only the first swirl group 21 is arranged.

See further the 2A . 3A and 4 , The first swirl group 21 has several first swirling elements 211 on, wherein the plurality of first swirling elements 211 are arranged adjacent to each other and together a plurality of first fluid flow paths 251 define. The second vortex group 22 has several second turbulators 221 on, wherein the plurality of second turbulators 221 are arranged adjacent to each other and together a plurality of second fluid flow paths 252 define. In the present embodiment, the first and second swirling elements 211 . 221 wavy, however, the invention is not limited to the waveform and the adjacent arrangement. In the concrete implementation, the first and second turbulence elements 211 . 221 in other forms, such. B. spiral or geometric (eg., Square, rectangular or rhombic), formed and also be arranged side by side. As long as they produce a swirling effect and through which the residence time can be increased, it is possible to use them in the invention as the first swirling group 21 and second vortex group 22 to use. In the present embodiment, each first swirl element 211 one of the shapes of the other, adjacent first swirler 211 opposite shape, wherein the plurality of first swirling elements 211 for supporting the first fluid receiving plate 201 in the first fluid chamber 2014a are housed. The first swirling elements 211 are provided with a plurality of first swirling bodies 2111 provided, wherein the first Verwirbelungskörper 2111 on the respective first swirler 211 opposite side of the first fluid flow path 251 are arranged.

Every second vortex element 221 has one of the shape of the other, adjacent second turbulence element 221 opposite shape, wherein the plurality of second turbulators 221 for supporting the first fluid receiving plate 201 in the second fluid chamber 2014b are housed. The second turbulators 221 are with several second turbulence bodies 2211 provided, wherein the second swirl body 2211 on the opposite side of the second swirling element 252 from the respective second liquid flow path 252 221 are arranged. In alternative embodiments, the above-mentioned first and second swirling bodies 2111 . 2211 also be omitted. In a further alternative embodiment, the first and second swirl groups 21 . 22 each in one piece with the corresponding first spacer plate 2013, for example by 3D printing technology.

When the heated working fluid 4 over the inlet 2017 the first fluid intake plate 201 into the second fluid chamber 2014b is introduced and by the in the first fluid chamber 2014b second turbulence group 22 flows, is with the working fluid 4 at the second turbulence elements 221 creates a swirling effect, which ensures that in by all the second swirling elements 221 flowing working fluid 4 Homogeneous temperatures are achieved by mixing, and then the working fluid abuts the second fluid flow paths during further flow 252 against the second turbulence bodies 2211 to the residence time of the working fluid 4 thereby effectively improving the swirling effect and the heat exchange efficiency. At this time, the heat of the working fluid 4 directly from the inside of the first fluid intake plate 201 absorbed, wherein the absorbed heat for heat dissipation via the outside of the first liquid receiving plate 201 is discharged to the outside, then the working fluid flows 4 through the second fluid flow paths 252 and then via the first through-hole 2015a through the connecting pipe 271 into the fourth fluid chamber 2024B , If at this time the working fluid 4 still has heat, the heat of the working fluid 4 absorbed directly from the inside of the second liquid receiving plate 202, wherein the absorbed heat for heat dissipation via the outside of the second liquid receiving plate 202 is discharged to the outside, then flows in the fourth liquid chamber 2024B located cooled working fluid 4 over the sixth through hole 2025c through the second connecting pipe 272 and then back to the first fluid chamber 2014a the first fluid intake plate 201 , When the working fluid 4 through in the first fluid chamber 2014a located first swirl group 21 flows, is with the working fluid 4 at the first turbulence elements 211 creates a swirling effect, which ensures that in by all the first swirling elements 211 flowing working fluid 4 Homogeneous temperatures are achieved by mixing, and then the working fluid upon further flow through the first fluid flow paths 251 abuts against the first turbulence bodies 2111 to the residence time of the working fluid 4 thereby effectively improving the swirling effect and the heat exchange efficiency. During the flow-through process of the working fluid 4 through the first fluid flow paths 251 absorbs the working fluid at this time 4 over the first spacer plate 2013 the heat of the second liquid chamber 2014b located working fluid 4, thereby to achieve achieved by heat exchange rapid heat removal effect. After that in the first fluid chamber 2014a heated by heat exchange working fluid 4 through the first fluid flow paths 251 flowed, it flows over the third through hole 2015b through the third connecting pipe 273 into the third fluid chamber 2024a , At this time, the heat of the working fluid 4 absorbed directly from the inside of the second liquid receiving plate 202, wherein the absorbed heat for heat dissipation via the outside of the second liquid receiving plate 202 is discharged to the outside, finally flows the cooled working fluid 4 over the outlet 2027 out.

Thereby, that the first and second spacer plate 2013 . 2023 in the first and second fluid receiving plates 201 . 202 arranged to form an intermediate layer structure and the first and second swirling groups 21, 22 are arranged in the interlayer structure, the flow path and the time in which or in which the working fluid through the first and second liquid receiving plate 201 . 202 flows, be extended to thereby achieve a heat exchange achieved by rapid heat removal effect. Through the first and second swirl groups 21 . 22 achieved increase in the residence time of the working fluid 4 and improving the swirling effect may further improve the heat exchange efficiency between the working fluid 4 and the liquid receiving plates (eg, the first liquid receiving plate 201 ) be improved. While with the working fluid 4 at the first and second turbulators 211 . 221 a swirling effect is generated, that of the first and second swirling elements 211 . 221 absorbed heat of the working fluid 4 for heat dissipation respectively to the corresponding first and second liquid receiving plate 201 . 202 transferred to effectively increase the heat transfer surface and thereby significantly improve the cooling efficiency. In addition, the inside of the first and second fluid receiving plates 201 . 202 the liquid receiving plate group 20 a larger absorption area, through which the heat of the flowing working fluid 4 is directly absorbed, also has the outside of the first and second liquid receiving plate 201 . 202 a larger heat dissipation area, through which the absorbed heat is dissipated quickly to the outside. In this way, an excellent heat-removing effect and the advantageous effect of increasing the heat-dissipating area can be effectively achieved.

In an alternative embodiment, the first and second fluid receiving plates are made 201 . 202 and the first connecting pipe 271 made of titanium material. Its titanium content (or purity) is between 90% and 99.99%, such. B. commercially available pure titanium (English: commercially pure titanium, abbreviated: CP-Ti). By the Higher strength, light weight, corrosion resistance and good thermal conductivity of titanium material can be effectively improved in the heat transfer efficiency of the invention and the overall weight of the invention can be kept low. By designing the combination of fluid intake plate group 20 and the connection pipe group 27, furthermore, the number of the liquid receiving plates and the connection positions of the liquid receiving plates according to the indoor situation of an electronic device (not shown) can be flexibly adjusted or varied to allow adaptation to the interior of the electronic device and to achieve a diversification effect of heat dissipation.

Furthermore, the inventive water cooler assembly with intermediate layers 2 for electronic devices, industrial equipment, household appliances, transportation equipment or intelligent appliances, etc., to cool the electronic components or heat-generating components located inside various devices.

The 5A and 5B each show a schematic exploded perspective view and a schematic sectional view of the first modification of the embodiment of the liquid receiving plate group according to the invention. 4 shows a partially enlarged schematic perspective view according to 5A , As shown in the figures, the structure and the combination relationships are between the first and second liquid receiving plates 201 . 202 and the first and second swirl groups 21 . 22 and the first, second and third connecting pipes 271, 272, 273 in the first modification of the present embodiment are substantially identical to the structure and the combination relationships between the first and second liquid receiving plates 201 . 202 and the first and second swirl groups 21 . 22 and the first, second and third connecting pipes 271 . 272 . 273 of the previous embodiment. The present embodiment differs from the previous embodiment in that the water cooler assembly with intermediate layers 2 a first flow path 261 and a second flow path 262 includes, wherein the first flow path 261 in the first fluid chamber 2014a is arranged and in the first liquid chamber 2014a located first swirling group 21 opposite. As in 5B shown, is the first flow path 261 on the right side within the first fluid chamber 2014a and the first swirl group 21 is located on the left side within the first fluid chamber 2014a , wherein the second flow path 262 within the second fluid chamber 2014b is arranged and within the second fluid chamber 2014b located second Verwirbelungsgruppe 22 opposite. As in 5B shown is the second flow path 262 on the left side within the second fluid chamber 2014b and the second swirl group 22 is located on the right side within the second fluid chamber 2014b , The first and second flow paths 261 . 262 serve to guide the flow path of the working fluid 4 , In the present embodiment, the first flow path 261 is curved on the inside of the first liquid chamber 2014a located first spacer plate 2013 formed and the second flow path 262 is curved on the other side of the in the second liquid chamber 2014b located first spacer plate 2013 educated. Further, the arrangement position of the first swirl group 21 and the arrangement position of the first flow path 261 not limited to the above arrangement. The essence of the present invention is that the first swirl group 21 and the first flow path 261 in the first fluid chamber 2014a arranged and the second Verwirbelungsgruppe 22 and the second flow path 262 in the second fluid chamber 2014b are arranged.

In one embodiment, the one in the second liquid chamber 2014b located second flow path 262 also be omitted, so that the entire area within the second fluid chamber 2014b (ie in the left and right areas) only the second swirl group 22 is arranged.

When the working fluid 4 through the in the second fluid chamber 2014b second turbulence group 22 flows, is with the working fluid 4 at the second turbulence elements 221 creates a swirling effect, which ensures that in by all the second swirling elements 221 flowing working fluid 4 Homogeneous temperatures are achieved by mixing, and then the working fluid abuts the second fluid flow paths during further flow 252 against the second swirl bodies 2211 and thus turbulences are generated. After the working fluid 4 through the second fluid flow paths 252 For example, it continues to flow along the curved second flow path 262 towards the first through hole 2015a , then it flows over the first through hole 2015a continue through the first connecting pipe 271 into the fourth fluid chamber 2024B , then the cooled working fluid in the fourth fluid chamber 2024b flows 4 via the sixth through-hole 2025c through the second connecting pipe 272 and then back to the first fluid chamber 2014a the first fluid intake plate 201 , When the working fluid 4 through in the first fluid chamber 2014a located first swirl group 21 flows, is with the working fluid 4 at the first turbulence elements 211 creates a swirling effect, which ensures that in by all the first swirling elements 211 flowing working fluid 4 Homogeneous temperatures are achieved by mixing, and then the working fluid pushes through the first fluid flow paths during further flow 251 against the first turbulence bodies 2111 , During the flow-through process of the working fluid 4 through the first fluid flow paths 251 At this time, the working fluid 4 absorbs via the first spacer plate 2013 the heat of the second liquid chamber 2014b located working fluid 4 to thereby achieve a heat removal fast heat removal effect. After that in the first fluid chamber 2014a heated by heat exchange working fluid 4 through the first fluid flow paths 251 For example, it continues to flow along the curved first flow path 261 towards the third through hole 2015b , then it flows over the third through hole 2015b continue through the third connecting pipe 273 into the third fluid chamber 2024a Finally, the cooled working fluid flows 4 over the outlet 2027 out. Characterized in that in the invention, two structures with different functions (namely, the first and second Verwirbelungsgruppe 21 . 22 and the first and second flow paths 261 . 262 ) in each of the first and second liquid chambers 2014a . 2014b are arranged, can flow through the working fluid 4 varies and the residence time of the working fluid 4 be increased, thereby significantly improving the cooling efficiency.

The 6A . 6B and 6C show respectively a schematic exploded perspective view, another schematic exploded perspective view and a schematic sectional view of the second modification of the embodiment of the liquid receiving plate group according to the invention; 6D shows a partially enlarged schematic perspective view according to 6A , As shown in the figures, here mainly the waveform of the first modification of the first and second turbulators became 211 . 221 of the foregoing embodiment of the above liquid receiving plate group by a geometric (eg, rectangular) shape of the second modification of the first and second turbulators 211 . 221 of the present embodiment. In the present embodiment, the first turbulence elements 211 the first swirl group 21 in the first fluid chamber 2014a arranged equidistantly spaced from each other and are opposite to the first flow path 261 , The second turbulators 221 the second vortex group 22 are in the second fluid chamber 2014b arranged equidistantly spaced from each other and are opposite to the second flow path 262 , In one embodiment, a design is possible in which the first swirling elements 211 in the first fluid chamber 2014a not equidistantly spaced from each other and with respect to the first flow path 261 lie and the second turbulators 221 in the second fluid chamber 2014b not equidistantly spaced from each other and with respect to the second flow path 262 lie.

Every first vortex element 211 is provided with a plurality of first swirl holes 213, wherein the plurality of first swirl holes 213 through the respective first swirling element 211 passing, wherein first edge lips 2131 from the periphery of a portion of the first Verwirbelungslöcher 213 on one side of the respective first swirling element 211 stick out, with the other first edge lips 2131 from the periphery of the other part of the first swirl holes 213 on the other side of the respective first vortex element 211 protrude, wherein each second swirler 221 a plurality of second Verwirbelungslöcher 223 having the second swirl holes 223 through the respective second turbulence element 221 go through, with second edge lips 2231 from the periphery of a part of the second swirl holes 223 on one side of the respective second turbulence element 221 protrude, wherein the other second edge lips 2231 from the periphery of the other part of the second Verwirbelungslöcher 223 on the other side of the respective second turbulence element 221 protrude.

In the practice of the present embodiment, the one side and the other side of the respective first swirling element become 211 (or the respective second turbulence element 221 ) to form the first swirl holes 213 (or the second swirl holes 223 ) by means of a mechanical processing method (eg punching). In this case, the edge lips (first edge lips 2131 or second edge lips 2231 ) punching holes made with a punching module (the first swirl holes 213 or the second Verwirbelungslöcher 223 ) are squeezed out and thus formed, respectively at the periphery of a part of the first Verwirbelungslöcher 213 (the second vortex holes 223 ) and at the periphery of the other part of the first swirl holes 213 (of the second swirl holes 223) on one side and on the other side of the respective first swirler 211 (or the respective second turbulence element 221 ) intended. Due to the structural design of the first and second Verwirbelungslöcher 213 . 223 the first and second turbulators 211 , 221 and the corresponding first and second edge lips 2131 . 2231 will, if the working fluid 4 through the corresponding first swirl holes 213 (or the second swirl holes 223 ) flows and then against the first edge lips thereon 2131 (or the second edge lips 2231 ), creating a swirling effect, around the residence time of the working fluid 4 and thereby significantly improve the cooling efficiency (or the heat exchange efficiency). Here, the shape of the first and second Verwirbelungslöcher 213 , 223 hexagonal, geometric (eg square or rhombic) or polygonal (such as triangular, pentagonal or octagonal).

The 7A and 7B each show a schematic exploded perspective view and a schematic sectional view of the third modification of the embodiment of the liquid receiving plate group according to the invention; 4 shows a partially enlarged schematic perspective view according to 7A , As shown in the figure, the third modification of the present invention differs from the previous modification in that the water cooler assembly with intermediate layers 2 a third vortex group 23 and a fourth vortex group 24 includes. The third and fourth turbulence groups 23 . 24 offer a swirl and support effect. The third and fourth turbulence groups 23 . 24 consist of gold, silver, copper, iron, titanium, aluminum, stainless steel or alloys thereof. The third and fourth turbulence groups 23 . 24 are each in the third fluid chamber 2024a or the fourth fluid chamber 2024B accommodated. In the present embodiment, the upper end and the lower end of the stand in the third liquid chamber 2024a located third Verwirbelungsgruppe 23 each with the inside of the second upper plate 2021 and with one side of the second spacer plate 2023 in contact, and the upper end and the lower end of the in the fourth liquid chamber 2024B fourth turbulence group 24 each stand with the other side of the second spacer plate 2023 and with the inside of the second lower plate 2022 in contact.

The third vortex group 23 has several third turbulence elements 231 on, with the several third turbulence elements 231 are arranged adjacent to each other and together a plurality of third fluid flow paths 253 define. The fourth vortex group 24 has several fourth turbulators 241 wherein the plurality of fourth turbulators 241 are disposed adjacent to each other and together form a plurality of fourth fluid flow paths 254 define.

In the present embodiment, the third and fourth turbulence elements 231 . 241 wavy, however, the invention is not limited to the waveform and the adjacent arrangement. In the concrete implementation, the third and fourth turbulence elements 231 . 241 in other forms, such. B. spiral or geometric (eg., Square, rectangular or rhombic), formed and also be arranged side by side. As long as they produce a swirling effect and through which the residence time can be increased, it is possible to use them in the invention as a third swirling group 23 and fourth vortex group 24 to use. Every third vortex element 231 has one of the shape of the other, adjacent third turbulence element 231 opposite shape, wherein the plurality of third turbulators 231 for supporting the second fluid receiving plate 202 in the third fluid chamber 2024a are housed. The third turbulence elements 231 are with several third swirling bodies 2311 provided, wherein the third turbulence body 2311 on the respective third turbulence element 231 opposite side of the third fluid flow path 253 are arranged.

Every fourth vortex element 241 has one of the shape of the other, adjacent fourth turbulence element 241 opposite shape, wherein the plurality of fourth turbulators 241 for supporting the second fluid receiving plate 202 in the fourth fluid chamber 2024B are housed. The fourth turbulence elements 241 are with several fourth vortex bodies 2411 The fourth swirl bodies 2411 are provided on the respective fourth liquid flow path 254 opposite side of the fourth turbulence element 241 are arranged. In alternative embodiments, the above third and fourth turbulators may be used 2311 . 2411 also be omitted. In a further alternative embodiment, the third and fourth swirl groups 23 . 24 each in one piece with the corresponding second spacer plate 2023, for example by 3D printing technology. Through the through the third and fourth Verwirbelungsgruppe 23 . 24 achieved increase in the residence time of the working fluid 4 and the effect of swirling can improve the heat exchange efficiency between the working fluid 4 and the liquid receiving plates (eg, the first liquid receiving plate 201 ), thereby significantly improving the overall cooling efficiency.

In another embodiment, the second and fourth swirl groups 22 . 24 also be omitted, so in the first and third liquid chamber 2014a . 2024a only the first and third Verwirbelungsgruppe 21 . 23 are arranged. In another embodiment, the first and third swirl groups 21 . 23 also be omitted, so in the second and fourth liquid chamber 2014b . 2024B only the second and fourth Verwirbelungsgruppe 22 . 24 are arranged. In another embodiment, the third swirl group 23 also be omitted, so that in the first, second and fourth fluid chamber 2014a . 2014b , 2024b only the first, second and fourth Verwirbelungsgruppe 21 . 22 . 24 are arranged.

Due to the design of the water cooler assembly according to the invention with intermediate layers 2 For example, the beneficial effects of excellent heat removal efficiency, rapid heat exchange and rapid heat dissipation can be achieved. Furthermore, the flow time of the working fluid 4 and the heat exchange time between the working fluid 4 and the liquid receiving plates (eg, the first and second liquid receiving plates 201 . 202 ) can be effectively increased to significantly improve the cooling efficiency.

The 8A and 8B each show a schematic exploded perspective view and a schematic sectional view of the fourth modification of the embodiment of the liquid receiving plate group according to the invention; 4 shows a partially enlarged schematic perspective view according to 8A , The structure and combination relationships between the first and second fluid acquisition plates 201 . 202 and the first, second and third connecting pipes 271 . 272 . 273 in the fourth modification of the present embodiment are substantially identical to the structure and the combination relationships between the first and second liquid receiving plates 201 . 202 and the first, second and third connecting pipes 271 . 272 . 273 the foregoing third modification of the present embodiment. The transformation from the third modification to the fourth modification is based here primarily on the fact that the first, second, third and fourth Verwirbelungsgruppe 21 . 22 . 23 . 24 each in a corresponding area within the first, second, third and fourth liquid chambers 2014a . 2014b . 2024a . 2024B are arranged (eg in the left area within the first and third liquid chamber 2014a . 2024a and in the right area within the second and fourth liquid chambers 2014b . 2024B ) and the respective other region within the first, second, third and fourth liquid chambers 2014a . 2014b . 2024a . 2024B (eg the right side of the first and third fluid chambers 2014a . 2024a and the left side of the second and fourth liquid chambers 2014b . 2024B ) each have respective first, second, third and fourth flow paths 261 . 262 . 263 . 264 having.

As shown in the figures, the structure, the combination relationships, and the beneficial effects of the first and second swirl groups are 21 . 22 and the first and second flow paths 261 . 262 in the first and second liquid chambers, respectively 2014a . 2014b of the present embodiment is substantially identical to the structure, the combination relationships, and the beneficial effects of the first and second swirl groups 21 . 22 and the first and second flow paths 261 . 262 in the first and second liquid chambers, respectively 2014a . 2014b the first modification of the embodiment of the aforementioned liquid receiving plate group, so that they will not be described again here. In the present embodiment, the flow through and the beneficial effects of the working fluid 4 located in the first and second fluid intake plates 201 . 202 , in the first and second turbulence groups 21 . 22 in the first and second flow paths 261 . 262 and in the first, second and third connecting pipes 271 . 272 . 273 already described above in the first modification so that they will not be described again here.

The water cooler construction with intermediate layers 2 includes a third flow path 263 and a fourth flow path 264 , wherein the third flow path 263 in the third fluid chamber 2024a is arranged and in the third fluid chamber 2024a located third Verwirbelungsgruppe 23 opposite. As in 8B shown is the third flow path 263 on the right side within the third fluid chamber 2024a and the third vortex group 23 is located on the left side within the third fluid chamber 2024a , wherein the fourth flow path 264 within the fourth fluid chamber 2024B is arranged and within the fourth liquid chamber 2024B fourth turbulence group 24 opposite. As in 8B shown is the fourth flow path 264 on the left side within the fourth fluid chamber 2024B and the fourth vortex group 24 is located on the right side within the fourth fluid chamber 2024B , The third and fourth flow paths 263 . 264 serve to guide the flow path of the working fluid 4 , In the present embodiment, the third flow path 263 curved on the inside of the third liquid chamber 2024a located second spacer plate 2023 formed and the fourth flow path 264 is curved on the other side of the in the fourth fluid chamber 2024B located second spacer plate 2023 educated. Further, the arrangement position of the third swirl group 23 and the third flow path 263 and the arrangement position of the fourth swirl group 24 and the fourth flow path 264 not limited to the above arrangement. The essence of the present invention is that the third swirl group 23 and the third flow path 263 in the third fluid chamber 2024a arranged and the fourth vortex group 24 and the fourth flow path 264 in the fourth fluid chamber 2024B are arranged. In one embodiment, the in the fourth fluid chamber 2024B also be omitted, so that in the entire area within the fourth liquid chamber 2024B (ie in the left and right areas) only the fourth swirl group 24 is arranged.

When the working fluid 4 through the first connecting pipe 271 flows through and into the fourth fluid chamber 2024B flows in and then through the fourth Verwirbelungselemente 241 flows through, is with the working fluid 4 at the fourth turbulence elements 241 creates a swirling effect, which ensures that in by all fourth swirling elements 241 flowing working fluid 4 Homogenous temperatures are achieved by mixing, and then the working fluid pushes on the further flow through the fourth fluid flow paths 254 against the fourth turbulence bodies 2411 and thus turbulence is generated. After the working fluid 4 through the fourth fluid flow paths 254 For example, it continues to flow along the curved fourth flow path 264 in the direction of the sixth through-hole 2025c , then the cooled working fluid flows 4 over the sixth through hole 2025c through the second connecting pipe 272 and then back to the first fluid chamber 2014a the first fluid receiving plate 201. When the working fluid 4 through in the first fluid chamber 2014a located first swirl group 21 flows, is with the working fluid 4 at the first turbulence elements 211 creates a swirling effect, which ensures that in by all the first swirling elements 211 flowing working fluid 4 Homogeneous temperatures are achieved by mixing, and then the working fluid pushes through the first fluid flow paths during further flow 251 against the first turbulence bodies 2111 and thus turbulence is generated. During the flow-through process of the working fluid 4 through the first fluid flow paths 251 absorbs the working fluid at this time 4 over the first spacer plate 2013 the heat of the second liquid chamber 2014b located working fluid 4, thereby to achieve achieved by heat exchange rapid heat removal effect. After that in the first fluid chamber 2014a heated by heat exchange working fluid 4 through the first fluid flow paths 251 For example, it continues to flow along the curved first flow path 261 toward the third through-hole 2015b, then it flows over the third through-hole 2015b continue through the third connecting pipe 273 into the third fluid chamber 2024a , then it flows along the curved third flow path 263 in the direction of the outlet 2027 , When the working fluid 4 flows through the third swirling group 23 is, with the working fluid to the third swirling elements 231 creates a swirling effect, which ensures that in by all the third swirling elements 231 flowing working fluid 4 homogeneous temperatures can be achieved by mixing, and then the working fluid upon further flowing through the third fluid flow paths 253 abuts against the third turbulence bodies 2311 and thus turbulence is generated. Finally, the cooled working fluid flows 4 through the third fluid flow paths 253 through and then over the outlet 2027 out. In this way, the advantageous effects of the excellent heat dissipating effect, the rapid heat exchange and the rapid heat dissipation can be achieved, and further the flow time of the working liquid 4 can be effectively increased and the cooling efficiency can be improved considerably.

The 9A . 9B and 9C show, respectively, a schematic exploded perspective view, another schematic exploded perspective view and a schematic sectional view of the fifth modification of the embodiment of the liquid receiving plate group according to the present invention; 6D shows a partially enlarged schematic perspective view according to 9A. Here, as shown in the figures, the waveform of the fourth modification of the first, second, third and fourth turbulators 211, 221, 231, 241 of the foregoing embodiment of the above-mentioned liquid receiving plate group by a geometric (eg, rectangular) shape of the fifth has been mainly used Modification of the first, second, third and fourth turbulators 211 . 221 . 231 . 241 of the present embodiment. In the present embodiment, the structure, the combination relationships and the beneficial effects of the first and second swirling elements 211 . 221 and the first and second flow paths 261 , 262 of the present embodiment substantially identical to the structure, the Combination relationships and the beneficial effects of the first and second turbulence element 211 . 221 and the first and second flow paths 261 . 262 the first modification of the embodiment of the aforementioned liquid receiving plate group, so that they will not be described again here. The third turbulence elements 231 the third turbulence group 23 are in the first fluid chamber 2014a arranged equidistantly spaced from each other and are opposite to the third flow path 263 , The fourth turbulence elements 241 the fourth vortex group 24 are in the fourth fluid chamber 2024B arranged equidistant from each other and lie opposite the fourth flow path 264 , In one embodiment, a design is possible in which the third turbulence elements 231 in the third liquid chamber 2024a are not arranged equidistant from each other and with respect to the third flow path 263 lie and the fourth turbulators 241 in the fourth fluid chamber 2024B not equidistantly spaced from each other and opposite the fourth flow path 264 lie.

Every third vortex element 231 is with several third swirl holes 233 provided with the several third Verwirbelungslöcher 233 through the respective third turbulence element 231 go through, with third edge lips 2331 from the periphery of part of the third swirl holes 233 on one side of the respective third vortex element 231 protrude, the other third edge lips 2331 from the periphery of the other part of the third Verwirbelungslöcher 233 on the other side of the respective third turbulence element 231 stick out, with every fourth vortex element 241 several fourth vortex holes 243 having the fourth Verwirbelungslöcher 243 through the respective fourth turbulence element 241 go through, with fourth edge lips 2431 from the periphery of a part of the fourth swirl holes 243 on one side of the respective fourth vortex element 241 stick out, with the other fourth edge lips 2431 from the periphery of the other part of the fourth swirl holes 243 on the other side of the respective fourth vortex element 241 protrude. Here, the shape of the first, second, third and fourth Verwirbelungslöcher 213 , 223, 233, 243 hexagonal, geometric or polygonal.

Further, in the practice of the present invention, the third and fourth turbulators become 231 . 241 and the first and second turbulators 211 . 221 all produced by means of a mechanical processing method (eg stamping), which has already been described in the second modification of the embodiment of the abovementioned liquid-receiving plate group and will therefore not be described again here. Due to the structural design of the first, second, third and fourth Verwirbelungslöcher 213 . 223 . 233 . 243 the first, second, third and fourth turbulators 211 . 221 . 231 . 241 and the corresponding first, second, third and fourth edge lips 2131 . 2231 . 2331 . 2431 will, if the working fluid 4 through the corresponding first swirl holes 213 (or the second swirl holes 223 or the third turbulence holes 233 or the fourth vortex holes 243 ) flows and then against the first edge lips thereon 2131 (or the second edge lips 2231 or the third edge lips 2331 or the fourth edge lips 2431 ), creating a swirling effect, around the residence time of the working fluid 4 and thereby significantly improve the cooling efficiency (or the heat exchange efficiency).

10 shows a schematic perspective view of a sixth modification of the embodiment of the liquid receiving plate group according to the invention 20 , As shown in the figure, the second modification of the embodiment differs from the previous modification in that the first liquid receiving plate 201 a first cooling fin group consisting of several cooling fins 281 wherein the first cooling fin group 281 on the outer bottom side of the first liquid receiving plate 201 is arranged, wherein a plurality of cooling fins second cooling fin group 282 between the first fluid intake plate 201 and the second fluid receiving plate 202 is arranged, wherein the second fin group 282 in between the first fluid intake plate 201 and the second fluid receiving plate 202 located heat dissipation space 29 wherein there is a plurality of cooling fins third cooling fin group 283 on the outer top of the second fluid receiving plate 202 is arranged. The on the outside of the first and second fluid receiving plate 201 . 202 absorbed heat is passed through the first, second and third Fin group 281 . 282 . 283 quickly discharged to the outside to thereby achieve excellent cooling efficiency.

Please refer 11 , In one embodiment, the first and third fin groups are 281 . 283 through a protective cover group 5 covered. The protection cover group 5 has a top cover 51 and a lower cover 52 on, with the top cover 51 and the bottom cover 52 are arranged so that they respectively the outside of the first cooling fin group 281 and the outside of the third fin group 283 Cover the first, second and third fin groups 281 . 282 . 283 to protect against damage, with one side of the protective cover group 5 Corresponding to a fan group consisting of several fans 6 connected is. The fan group 6 Ensures that forced cooling of the first, second and third fin groups 281 . 282 , 283 takes place to the heat of the first, second and third cooling fin group 281 , 282, 283 quickly dissipate to the outside.

In another embodiment, the protective cover group 5 and the fan group 6 also be omitted. In another embodiment, in the protective cover group 5 additionally a latching group (not shown) may be arranged. The latching group makes it possible to use the inventive water cooler assembly with intermediate layers 2 Stably connect with a support (such as computer case or motherboard), thereby ensuring a good fastening effect.

In the practice of the present embodiment, the outlet 2027 is the second fluid receiving plate 202 being continuously connected to one end of a respective pump (not shown), a cooling module (not shown) adjacent to a heat generating electronic component (such as a central processor or other electronic component) being connected to the other end of the respective pump and to the other end inlet 2017 the first fluid intake plate 201 is consistently connected, so that the water cooler construction with intermediate layers 2 , the pump and the cooling module are combined with each other and together form a water cooling system. Thus, a circulation cooling is effected between the cooling module and the liquid receiving plate group, which is achieved by the working fluid 4 by means of the pump is set in motion (or swirling). In this way, excellent cooling efficiency and rapid heat removal effect achieved by heat exchange can be achieved.

LIST OF REFERENCE NUMBERS

2

Water cooler construction with intermediate layers

20

Fluid intake plate group

201

first fluid intake plate

2011

first upper plate

2012

first lower plate

2013

first spacer plate

20131

first through hole

2014a

first fluid chamber

2014b

second fluid chamber

2015a, 2015b, 2015c

first, third, fourth through hole

2017

inlet

202

second fluid receiving plate

2021

second upper plate

2022

second lower plate

2023

second spacer plate

20231

second through-hole

2024a

third fluid chamber

2024B

fourth fluid chamber

2025a, 2025b, 2025c

second, fifth, sixth through hole

2027

outlet

21, 22, 23, 24

first, second, third, fourth turbulence groups

211, 221, 231, 241

first, second, third, fourth turbulence element

2111, 2211, 2311, 2411

first, second, third, fourth vortex bodies

213, 223, 233, 243

first, second, third, fourth vortex holes

2131, 2231, 2331, 2431

first, second, third, fourth edge lip

251, 252, 253, 254

first, second, third, fourth fluid flow paths

261, 262, 263, 264

first, second, third, fourth flow paths

27

Connecting pipe group

271, 272, 273

first, second, third connecting pipe

281, 282, 283

first, second, third fin group

29

Heat dissipation space

4

working fluid

5

Protective cover group

51

top cover

52

lower cover

6

fan group

Claims (20)

A swirl group water cooler assembly having intermediate layers (2), comprising: a fluid receiving plate group (20) comprising: a first fluid receiving plate (201) having at least one inlet (2017), wherein a first spacer plate (2013) is disposed in the first fluid receiving plate (201), a first fluid chamber (2014a) and one having at least the inlet (2017) connected second liquid chamber (2014b) are separated from each other by the first spacer plate, wherein a working fluid (4) flows into the second liquid chamber (201b) via the at least one inlet (2017); a second fluid receiving plate (202) having at least one outlet (2027), wherein a second spacer plate (2023) is disposed in the second fluid receiving plate (202), wherein a third fluid chamber (2024a) and a fourth fluid chamber (2024b) pass through the second fluid chamber Spacer plate are separated from each other, wherein the third fluid chamber (2024a) with at least one outlet (2027) is continuously connected; a first swirl group (21) selectively disposed in one of the following liquid chambers: first, second, third, and fourth liquid chambers (2014a, 2014b, 2024a, 2024b); and a connection pipe group (27) having a first connection pipe (271), a second connection pipe (272) and a third connection pipe (273), said first connection pipe (271) being connected to said second liquid chamber (2014b) and said fourth liquid chamber (2024b) wherein the second connection tube (272) is continuously connected to the fourth fluid chamber (2024b) and the first fluid chamber (2014a), the third connection tube (273) being connected to the first fluid chamber (2014a) and the third fluid chamber (2024a). is consistently connected. Vortex group having water cooler structure with intermediate layers after Claim 1 wherein the first fluid receiving plate (201) comprises a first upper plate (2011) and a first lower plate (2012), the first spacer plate (2013) being between the first upper plate (2011) and the first lower plate (2012) wherein the second liquid chamber (2014b) and the first liquid chamber (2014a) are respectively provided between the first lower plate (2012) and the first spacer plate (2013) and between the first upper plate (2011) and the first spacer plate (2013) , Vortex group having water cooler structure with intermediate layers after Claim 2 wherein the first swirl group (21) is housed in the first liquid chamber (2014a), the upper end and the lower end of the first swirl group (21) being respectively connected to the inner side of the first upper plate (2011) and to one side of the first Distance plate (2013) in contact. Vortex group having water cooler structure with intermediate layers after Claim 3 wherein the second fluid receiving plate (202) comprises a second upper plate (2021) and a second lower plate (2022), the second spacer plate (2023) being sandwiched between the second upper plate (2021) and the second lower plate (2022). wherein the fourth liquid chamber (2024b) and the third liquid chamber (2024a) are respectively provided between the second lower plate (2022) and the second spacer plate (2023) and between the second spacer plate (2013) and the second upper plate (2011) , Vortex group having water cooler structure with intermediate layers after Claim 4 wherein it comprises a second swirl group (22), wherein the second swirl group (22) is housed in the second liquid chamber (2014b), wherein the upper end and the lower end of the second swirl group (22) are respectively connected to the other side of the first spacer plate (2013) and in contact with the inside of the second bottom plate (2022). Vortex group having water cooler structure with intermediate layers after Claim 5 in that it comprises a third swirl group (23) and a fourth swirl group (24), wherein the third swirl group (23) is accommodated in the third liquid chamber (2024a), the upper end and the lower end of the third swirl group (23) each in contact with the inside of the second top plate (2021) and with one side of the second spacer plate (2023), the fourth fluidizing group (24) being housed in the fourth fluid chamber (2024b), the top end and the bottom end the fourth Verwirbelungsgruppe (24) each with the other side of the second spacer plate (2023) and with the inside of the second lower plate (2022) are in contact. Vortex group having water cooler structure with intermediate layers after Claim 6 wherein the first swirl group (21) comprises a plurality of first swirl elements (211), wherein the plurality of first swirl elements (211) are disposed adjacent to each other and together define a plurality of first fluid flow paths (251), the first swirl elements (211) having a plurality of first swirl bodies (2111), wherein the first swirling bodies (2111) are arranged on the opposite side of the first liquid flow path (251) from the respective first swirling element (211), wherein the second swirling group (22) comprises a plurality of second swirling elements (221) a plurality of second turbulators (221) are disposed adjacent to each other and together define a plurality of second fluid flow paths (252), the second turbulators (221) being provided with a plurality of second turbulators (2211), the second turbulators (2211) being mounted on the respective ones the second fluid flow path (252) opposite side of the second turbulence element (221) are arranged. Vortex group having water cooler structure with intermediate layers after Claim 7 wherein the third swirl group (23) comprises a plurality of third swirl elements (231), wherein the plurality of third swirl elements (231) are disposed adjacent to each other and together define a plurality of third fluid flow paths (253), the third swirl elements (231) having a plurality of third swirl bodies (2311), the third swirling bodies (2311) being disposed on the opposite side of the third liquid flow path (253) from the respective third swirling element (231), the fourth swirling group (24) having a plurality of fourth swirling elements (241) a plurality of fourth turbulators (241) are disposed adjacent to each other and together define a plurality of fourth fluid flow paths (254), the fourth turbulators (241) being provided with a plurality of fourth turbulators (2411), the fourth turbulators (2411) on the respective fourth liquid flow path (254) opposite side of the fourth turbulence element (241) are arranged. Vortex group having water cooler structure with intermediate layers after Claim 8 in which the first and second swirling elements (211, 221) are undulating, each first swirling element (211) having a shape opposite the shape of the other, adjacent first swirling element (211), each second swirling element (221) having one of the shape of the other opposing second swirling member (221) having opposite third and fourth swirling members (231, 241), each third swirling member (231) having a shape opposite to that of the other, adjacent third swirling member (231), each one fourth swirler (241) has a shape opposite to that of the other, adjacent fourth swirler (241). Vortex group having water cooler structure with intermediate layers after Claim 6 wherein the first swirl group (21) comprises a plurality of first swirl elements (211), wherein the plurality of first swirl elements (211) in the first liquid chamber (2014a) are equidistant or not equidistantly spaced from each other, each first swirl element (211) having a plurality of first swirl elements (211) first swirl holes (213), the plurality of first swirl holes (213) passing through the respective first swirler (211), the second swirl group (22) including a plurality of second swirl members (221), the plurality of second swirl members (221) in each second swirling element (221) is provided with a plurality of second swirling holes (223), the plurality of second swirling holes (223) passing through the respective second swirling element (221). Vortex group having water cooler structure with intermediate layers after Claim 10 in which the third swirl group (23) comprises a plurality of third swirl elements (231), wherein the plurality of third swirl elements (231) in the third liquid chamber (2024a) are equidistantly or not equidistantly spaced from each other, each third swirl element (231) having a plurality of swirl elements (231) third swirl holes (233), the plurality of third swirl holes (233) passing through the respective third swirler (231), the fourth swirl group (24) having a plurality of fourth swirl elements (241), the plurality of fourth swirl elements (241) in the fourth liquid chamber (2024b) are arranged equidistantly or not equidistantly spaced from one another, wherein each fourth turbulence element (241) is provided with a plurality of fourth Verwirbelungslöchern (243), wherein the plurality of fourth Vortex holes (243) pass through the respective fourth vortex element (241), the shape of the first, second, third and fourth vortex holes (213, 223, 233, 243) being hexagonal, geometric or polygonal. Vortex group having water cooler structure with intermediate layers after Claim 6 wherein it includes a first flow path (261) and a second flow path (262), wherein the first and second flow paths (261, 262) are disposed in the first fluid chamber (2014a) and the second fluid chamber (2014b), respectively in the first liquid chamber (2014a) located first swirling group (21) and in the second liquid chamber (2014b) located second swirling group (22) are opposite. Vortex group having water cooler structure with intermediate layers after Claim 12 in that it comprises a third flow path (263) and a fourth flow path (264), the third and fourth flow paths (263, 264) being respectively disposed in the third liquid chamber (2024a) and the fourth liquid chamber (2024b) and respectively the third swirling group (23) located in the third liquid chamber (2024a) and the fourth swirling group (24) located in the fourth liquid chamber (2024b) are opposed to each other. Vortex group having water cooler structure with intermediate layers after Claim 4 wherein the first liquid receiving plate (201) has a first through hole (2015a) passing through the first upper plate (2011), the first spacer plate (2013) having a first through hole (20131), the first through hole (20131) passing through the first through hole (2013) first spacer plate (2013) and facing the first through hole (2015a) and the second liquid chamber (2014b), wherein one end of the first connection pipe (271) passes through the first through hole (2015a) and the first through hole (20131) and into the second Liquid chamber (2014b) is inserted, wherein the first connecting pipe (271) with the second liquid chamber (2014b) is continuously connected. Vortex group having water cooler structure with intermediate layers after Claim 14 wherein the second liquid receiving plate (202) has a second through hole (2025a) passing through the second lower plate (2022), the other end of the first connection pipe (271) being continuously connected corresponding to the second through hole (2025a) first connecting tube (271) is continuously connected to the second liquid chamber (2014b) and the fourth liquid chamber (2024b), wherein the first liquid receiving plate (201) comprises a third through hole (2015b) and a fourth through hole (2015c), the third and fourth Through hole (2015b, 2015c) respectively pass through the corresponding first upper plate (2011) of the first through hole (2015a), wherein an end of the second connection pipe (272) and the third connection pipe (273) are respectively connected to the fourth through hole (2015c) and the third through-hole (2015b) are continuously connected, wherein the second and third connecting pipe (272 , 273) are continuously connected to the first liquid chamber (2014a). Vortex group having water cooler structure with intermediate layers after Claim 15 wherein the second liquid receiving plate (202) comprises a fifth through hole (2025b) and a sixth through hole (2025c), the fifth and sixth through holes (2025b, 2025c) being respectively defined by the corresponding second lower plate (2022) of the second through hole (2025a ), wherein the other end of the second connection pipe (272) is continuously connected to the sixth through hole (2025c), the second connection pipe (272) being continuously connected to the first liquid chamber (2014a) and the fourth liquid chamber (2024b) the second spacer plate (2023) has a second through hole (20231), the second through hole (20231) passing through the second spacer plate (2023) and facing the fifth through hole (2025b) and the third liquid chamber (2024a), the other end of the second third connection pipe (273) through the fifth through hole (2025b) and the second through hole (20231) and is inserted to the third liquid chamber (2024a), wherein the third connecting pipe (273) with the first liquid chamber (2014a) and the third liquid chamber (2024a) is continuously connected. Vortex group having water cooler structure with intermediate layers after Claim 1 wherein the first and second fluid receiving plates (201, 202) and the first, second and third connecting tubes (271, 272, 273) are made of gold, silver, copper, iron, titanium, aluminum, stainless steel or alloys thereof. Vortex group having water cooler structure with intermediate layers after Claim 1 in which the interior of the first liquid receiving plate (201) is divided into two separate chambers, namely the second liquid chamber 2 (014b) and the first liquid chamber (2014a) by the first spacer plate (2013), the second liquid chamber (2014b) and the first Liquid chamber (2014a) are not continuously connected to each other, wherein by the second spacer plate (2023), the interior of the second liquid receiving plate (202) into two separate chambers, namely the fourth liquid chamber (2024b) and the third liquid chamber (2024a), divided the fourth liquid chamber (2024b) and the third liquid chamber (2024a) are not connected to one another continuously. Vortex group having water cooler structure with intermediate layers after Claim 10 in which first edge lips (2131) protrude from the periphery of a part of the first swirl holes (213) on one side of the respective first swirler (211), the other first edge lips (2131) protruding from the periphery of the other part of the first swirl holes (213) protrude) on the other side of the respective first swirling element (211), wherein second edge lips (2231) protrude from the periphery of a part of the second swirling holes (223) on one side of the respective second swirling element (221), the other second edge lips (2231 ) protrude from the periphery of the other part of the second swirl holes (223) on the other side of the respective second swirler (221). Vortex group having water cooler structure with intermediate layers after Claim 11 in that third edge lips (2331) protrude from the periphery of a part of the third swirl holes (233) on one side of the respective third swirler (231), the other third edge lips (2331) projecting from the periphery of the other part of the third swirl holes (233 protrude) on the other side of the respective third turbulence element (231), wherein fourth edge lips (2431) protrude from the periphery of a portion of the fourth turbulation holes (243) on one side of the respective fourth vortex element (241), the other fourth edge lips (2431 ) protrude from the periphery of the other part of the fourth swirl holes (243) on the other side of the respective fourth swirler (241).

Images