Patent Application
20250109916
The present disclosure relates to the field of heat exchange technology, in particular, to a liquid distributor and a heat exchanger.
In a conventional microchannel heat exchanger, gas-liquid two-phase fluid may directly enter inside of a manifold through an opening provided on the manifold, and then enter a heat exchange tube. In many cases, when a gas-liquid two-phase medium enters the manifold, a splitting phenomenon may occur since a flow rate of a gas and a liquid is different, resulting in that the medium is mixed non-uniformly into the heat exchange tube, thereby greatly affecting overall performance of the heat exchanger.
According to various embodiments of the present disclosure, a liquid distributor and a heat exchanger are provided in the present disclosure.
A liquid distributor includes a sleeve, a distribution structure, and a turbulence plate. The sleeve is configured to be in communication with a plurality of heat exchange tubes. The distribution structure is located inside the sleeve and is connected to the sleeve, the distribution structure is capable of dividing the interior of the sleeve into at least a first chamber and a second chamber in communication with each other, the first chamber is located at a side of the distribution structure away from the plurality of heat exchange tubes, and the second chamber is located at a side of the distribution structure proximal to the plurality of heat exchange tubes. The turbulence plate is located in the second chamber and is connected to the sleeve, the turbulence plate is spaced apart from the distribution structure, and the plurality of heat exchange tubes are partly inserted into the turbulence plate and are in communication with the second chamber.
It should be understood that the turbulence plate is disposed to fill a gap between two adjacent heat exchange tubes, so as to avoid a medium flowing into the gap, reduce separation space of a gas-liquid two-phase medium, and then cooperate with the distribution structure to mix the medium uniformly and distribute the media uniformly, so that the gas-liquid two-phase medium may be mixed more uniformly, and heat exchange efficiency of the heat exchanger may be improved.
In an embodiment, the turbulence plate is provided with a plurality of turbulence holes matched with shapes of the plurality of heat exchange tubes, each of the plurality of heat exchange tubes extends into corresponding one of the plurality of turbulence holes, and a length of each of the plurality of heat exchange tubes that extends into the corresponding one of the plurality of turbulence holes is less than a depth of the turbulence hole. Alternatively, an end of each of the plurality of heat exchange tubes that extends into the corresponding one of the plurality of turbulence holes is flush with a side surface of the turbulence plate proximal to the distribution structure.
In this way, the separation space of the gas-liquid two-phase medium may be reduced, thereby improving mixing uniformity of the medium.
In an embodiment, a shape of the distribution structure is a plate, and the distribution structure is provided with a plurality of distribution holes for communicating the first chamber with the second chamber.
In this way, the medium may be uniformly distributed.
In an embodiment, the plurality of distribution holes are spaced along a length direction of the distribution structure, or the plurality of distribution holes are arranged in a matrix manner.
In this way, the mixing uniformity of the medium may be further improved.
In an embodiment, each of the plurality of distribution holes are in a circular shape or a polygonal shape.
In this way, it facilitates circulation of the medium.
In an embodiment, each of the plurality of distribution holes are in a circular shape, and a radius of each of the plurality of distribution holes is defined as R1, and the radius R1 of each of the plurality of distribution holes satisfies the following formula: 0.5 mm≤R1≤2 mm.
In this way, it may balance uniformity and flow resistance of the medium.
In an embodiment, the distribution structure includes a plurality of padding members. The plurality of padding members are distributed sequentially along a length direction and a width direction of the turbulence plate, and adjacent two of the plurality of padding members are connected with each other, so that a plate structure is defined by the plurality of padding members. At least one liquid homogenizing hole for communicating the first chamber with the second chamber is formed among the plurality of padding members.
In this way, the mixing uniformity of the medium may be improved.
In an embodiment, the plurality of padding members are arranged in a matrix manner. Alternatively, along the length direction of the turbulence plate, the plurality of padding members are divided into multiple rows, and the plurality of padding members in adjacent two of multiple rows are arranged in a staggered manner.
In this way, the mixing uniformity of the medium may be further improved.
In an embodiment, each of the plurality of padding members is a rotating body or a polyhedron.
In this way, a contact area of the medium may be increased, thereby improving the mixing uniformity of the medium.
In an embodiment, the plurality of padding members are in a spherical shape, and a radius of each of the plurality of padding members is defined as R2, and the radius R2 of each of the plurality of padding members satisfies the following formula: 0.5 mm≤R2≤3 mm.
In this way, it may balance uniformity and flow resistance of the medium.
In an embodiment, the distribution structure includes a distribution plate and a plurality of padding members. The distribution plate is provided with a plurality of distribution holes for communicating the first chamber with the second chamber. The plurality of padding members are located in either or both of the first chamber and the second chamber, and the plurality of padding members are connected to the distribution plate.
In this way, the mixing uniformity of the medium may be improved.
In an embodiment, the plurality of padding members are distributed sequentially along a length direction and a width direction of the distribution plate, and adjacent two of the plurality of padding members are connected with each other, so that a plate structure is defined by the plurality of padding members. At least one liquid homogenizing hole is formed among the plurality of padding members.
In this way, the mixing uniformity of the medium may be improved, and the structural stability of the liquid distributor may be increased.
In an embodiment, the plurality of padding members are arranged in a matrix manner. Alternatively, along the length direction of the distribution plate, the plurality of padding members are divided into multiple rows, and the plurality of padding members in adjacent two of multiple rows are arranged in a staggered manner.
In this way, the mixing uniformity of the medium may be further improved.
In an embodiment, the turbulence plate is provided with a plurality of turbulence holes matched with shapes of the plurality of heat exchange tubes, the plurality of turbulence holes are disposed at intervals along a length direction of the turbulence plate, the plurality of distribution holes are disposed at intervals along a length direction of the distribution plate, and an axis of each of the plurality of turbulence holes is overlapped with an axis of each of the plurality of distribution holes, respectively.
In this way, it facilitates circulation of the medium.
In an embodiment, the turbulence plate is provided with a plurality of turbulence holes matched with shapes of the plurality of heat exchange tubes, and a cross-sectional area of each of the plurality of turbulence holes is greater than that of each of the plurality of distribution holes.
In this way, the mixing uniformity of the medium may be improved.
A heat exchanger is further provided in the present disclosure, including any one of the above liquid distributors, a plurality of fins, and the plurality of heat exchange tubes. The plurality of fins are disposed at intervals and in parallel. The plurality of heat exchange tubes penetrate the plurality of fins, respectively, and an end of each of the plurality of heat exchange tubes is in communication with the liquid distributor.
Compared with the related art, the heat exchanger provided in the present disclosure may improve uniformity of the medium and heat exchange efficiency of the heat exchanger by a joint function of the distribution structure and the turbulence plate.
To describe the technical solutions in the embodiments or in the related art more clearly, the following briefly describes the accompanying drawings required for describing the embodiments or the related art. Apparently, the accompanying drawings in the following description show only some embodiments of the present disclosure, and one skilled in the art may still derive other drawings from these accompanying drawings without creative labor.
In the figures, 100 represents a heat exchanger, 10 represents a liquid distributor, 11 represents a sleeve, 111 represents a main body, 112 represents a first end cap, 113 represents a second end cap, 12 represents a distribution structure, 121 represents a padding member, 1211 represents a liquid homogenizing hole, 122 represents a distribution plate, 1221 represents a distribution hole, 13 represents a first chamber, 14 represents a second chamber, 15 represents a turbulence plate, 151 represents a turbulence hole, 20 represents a heat exchange tube, 30 represents a fin, 40 represents an inlet nozzle, 50 represents a nozzle base, and 60 represents a liquid distributor unit.
The technical solutions in the embodiments of the present disclosure will be described clearly and completely in the following in conjunction with the accompanying drawings in the embodiments of the present disclosure, and it is obvious that the described embodiments are only a part of the embodiments of the present disclosure, but not all of the embodiments. Based on the embodiments in the present disclosure, all other embodiments obtained by one skilled in the art without making creative labor fall within the scope of protection of the present disclosure.
It should be noted that when an assembly is considered to be “fixed to” or “disposed on” another assembly, it may be directly disposed to another assembly, or there can be a centered assembly. When an assembly is considered to be “connected to” another assembly, it may be directly connected to another assembly, or there can be a centered assembly at the same time. The terms “vertical”, “horizontal”, “upper”, “lower”, “left”, “right”, and the like used in the specification of the present disclosure are for a purpose of description only, and are not intended to represent the only implementation.
In addition, the terms “first” and “second” are used only for the purpose of description, and cannot be understood to indicate or imply relative importance or implicitly indicate the quantity of indicated technical features. Therefore, a feature defined with “first” and “second” may explicitly or implicitly include at least one feature. In the description of the present disclosure, “a plurality of” means at least two, for example, two, three, and the like, unless otherwise specifically limited.
In the present disclosure, unless otherwise specified and limited, a first feature is “on” or “under” a second feature, which means that the first feature is in direct contact with the second feature, or the first feature is in indirect contact with the second feature by an intermediate medium. In addition, the first feature is “above”, “over”, and “on” the second feature, which means that the first feature is directly above or obliquely above the second feature, or only indicates that a level height of the first feature is higher than that of the second feature. The first feature is “below”, “under”, “beneath” the second feature, which means that the first feature is directly below or obliquely below the second feature, or only indicates that the level height of the first feature is less than that of the second feature.
Unless defined otherwise, technical terms or scientific terms involved in the specification of the present disclosure have the same meanings as would generally understood by one skilled in the technical field of the present disclosure. The terms used in the specification of the present disclosure are merely intended to describe specific embodiments, and are not intended to limit the present disclosure. The term “and/or” as used herein includes any and all combinations of one or more associated listed items.
Referring to
Main components of an air conditioning system include a compressor, a condenser, a throttle apparatus, and a heat exchanger. The heat exchanger performs heat exchange with the outside. The heat exchanger includes a fin, a heat exchange tube, a manifold, and a liquid distributor. The liquid distributor mainly functions to evenly distribute medium.
In the related art, the liquid distributor includes a sleeve and a distribution plate. An end of the heat exchange tube is inserted into the sleeve and in communication with the interior of the sleeve. The distribution plate is mounted in the sleeve and provided with multiple distribution holes. The medium enters the liquid distributor and is distributed through the distribution holes into the heat exchange tube, so as to achieve a uniform distribution effect. However, the medium that enters the liquid distributor is usually in a gas-liquid two-phase form. Due to application conditions and complexity of gas-liquid two-phase flow, it is difficult for the distribution plate to implement uniform distribution of the medium. In many cases, when a gas-liquid two-phase medium enters the liquid distributor, a splitting phenomenon may occur since a flow rate of a gas and a liquid is different, resulting in that the medium is mixed non-uniformly into the heat exchange tube, thereby greatly affecting overall performance of the heat exchanger.
To resolve the foregoing problem, referring to
Specifically, an end surface of the turbulence plate 15 proximal to the sleeve 11 may be fully attached to the sleeve 11, and a specific setting manner of the turbulence plate 15 and the sleeve 11 is not limited. In the present embodiment, the turbulence plate 15 and the sleeve 11 may be disposed separately, and the turbulence plate 15 and the sleeve 11 may be welded to fully attached. In other embodiments, the turbulence plate 15 and the sleeve 11 may be integrally formed, thereby simplifying a structure of the liquid distributor 10.
In an operation process, the gas-liquid two-phase medium enters the liquid distributor 10. The gas-liquid two-phase medium enters the first chamber 13 first, and enters the second chamber 14 after being mixed and distributed uniformly by the distribution structure 12. The turbulence plate 15 is disposed in the second chamber 14. If the turbulence plate 15 is not mounted, a gap exists between adjacent two of the plurality of heat exchange tubes 20 that are in communication with the second chamber 14, so that most of the medium fills the gap after the medium enters the second chamber 14, resulting in decreasing a utilization rate and a flow rate of the medium. It may be understood that the turbulence plate 15 may avoid the medium flowing into the gap, so that the medium may flow into the heat exchange tube 20 completely, and utilization rate of the medium may be improved. In addition, separation space of the gas-liquid two-phase medium may be reduced, so that the gas-liquid two-phase medium may be mixed more uniformly, and heat exchange efficiency of the heat exchanger 100 may be improved.
The turbulence plate 15 may be provided with a plurality of turbulence holes 151 matched with shapes of the plurality of heat exchange tubes 20, and each of the plurality of heat exchange tubes 20 may extend into corresponding one of the plurality of turbulence holes 151. The plurality of heat exchange tubes 20 may be inserted into the turbulence hole 151 and be fixedly connected to the turbulence plate 15, so that connection strength between the plurality of heat exchange tubes 20 and the turbulence plate 15 may be further improved, thereby improving structural stability of the heat exchanger 100.
In an embodiment, a length of each of the plurality of heat exchange tubes 20 that extends into the corresponding one of the plurality of turbulence holes 151 may be less than a depth of the turbulence hole 151. In this way, the medium may enter the plurality of heat exchange tubes 20 through the plurality of turbulence holes 151 completely, and the medium may not flow into the gap between adjacent two of the plurality of heat exchange tubes 20, so as to reduce the separation space of the gas-liquid two-phase medium, keep a relatively high flow rate of the medium, and improve mixing uniformity and utilization rate of the medium.
In another embodiment, an end of each of the plurality of heat exchange tube 20 that extends into the corresponding one of the plurality of turbulence holes 151 may be flush with a side surface of the turbulence plate 15 proximal to the distribution structure 12. In this way, it may be avoided that the medium flows into the gap between adjacent two of the plurality of heat exchange tubes 20, and a part of the medium may also be prevented from being filled in the plurality of turbulence holes 151. The media may directly flow into the plurality of heat exchange tubes 20 completely, and in addition, the media may keep the relatively high flow rate, thereby improving mixing uniformity and utilization rate of the medium.
Referring to
In an embodiment, referring to
Furthermore, a cross-sectional area of each of the plurality of turbulence holes 151 may be greater than that of each of the plurality of distribution holes 1221. When the medium passes through the plurality of distribution holes 1221, the flow rate of the medium may be accelerated, so that the medium may further be mixed uniformly, and heat exchange efficiency of the heat exchanger 100 may be improved.
In another embodiment, referring to
Furthermore, each of the plurality of distribution holes 1221 may be in a circular shape or a polygonal shape. In this way, the plurality of distribution holes 1221 may be easily processed and facilitate circulation of the medium. In other embodiments, the plurality of distribution holes 1221 may be in a triangle shape, a square shape, an octagon shape, or other shapes, as long as the same effect may be achieved.
In an embodiment, each of the plurality of distribution holes 1221 may be in a circular shape, and a radius of each of the plurality of distribution holes 1221 may be defined as R1, which satisfies the following formula: 0.5 mm≤R1≤2 mm. By reasonably setting a size of the plurality of distribution holes 1221, the uniformity and the flow resistance of the medium may be balanced. If R1<0.5 mm, the plurality of distribution hole 1221 may be too small, and the flow resistance of the medium may be increased, so that energy consumption of the heat exchanger 100 may increase. If R1>2 mm, the plurality of distribution holes 1221 may be excessively large, and the flow rate of the medium may be decreased, resulting in non-uniform mixing of the medium. For example, the radius R1 of each of the plurality of distribution holes 1221 may be 1 mm, 1.2 mm, or 1.5 mm.
Referring to
In an embodiment, referring to
In another embodiment, referring to
Furthermore, each of the plurality of padding members 121 may be a rotating body or a polyhedron. The rotating body may refer to a three-dimensional structure defined by rotating a plane curve by using a straight line in the same plane as a rotation axis. For example, the plurality of padding members 121 may include a cylinder or a cone. The polyhedron may refer to a three-dimensional structure surrounded by four or more polygons. For example, the plurality of padding members 121 may include a cube, a pyramid, or a prism. In this way, a contact area between the plurality of padding members 121 and the gas-liquid two-phase medium may be increased, and collision in the gas-liquid two-phase medium may be enhanced, thereby improving mixing uniformity of the medium.
In an embodiment, the plurality of padding members 121 may be in a spherical shape, and an impact frequency with the medium may be improved due to a shape characteristic of a spherical surface, thereby enhancing effect of gas-liquid mixing of the medium. In addition, a radius of each of the plurality of padding members 121 may be defined as R2, which may satisfy the following formula: 0.5 mm≤R2≤3 mm. By reasonably setting a size of the plurality of padding members 121, the uniformity and the flow resistance of the medium may be balanced. If R2<0.5 mm, a size of the at least one liquid homogenizing hole 1211 surrounded by adjacent two of the plurality of padding members 121 may be too small, and the resistance may be increased when the medium passes through the at least one liquid homogenizing hole 1211, resulting in increasing energy consumption of the heat exchanger 100. If R2>3 mm, the size of the at least one liquid homogenizing hole 1211 surrounded by adjacent two of the plurality of padding members 121 may be excessively large, and the flow rate of the medium may be decreased, resulting in non-uniform mixing of the medium. For example, the radius RI of each of the at least one liquid homogenizing hole 1211 may be 1 mm, 1.2 mm, or 1.5 mm. In other embodiments, a suitable size of the at least one liquid homogenizing hole 1211 may further be selected according to the flow of the medium in practical application, and the size of the at least one liquid homogenizing hole 1211 may be increased as the flow increases.
Referring to
The distribution plate 122 may be provided with a plurality of distribution holes 1221 for communicating the first chamber 13 with the second chamber 14. The plurality of distribution holes 1221 may have throttling effect, and there is a certain resistance when the medium passes through the plurality of distribution holes 1221. Since gas-liquid mixing ratios are different, the resistance generated when the medium passes through the plurality of distribution holes 1221 may be different. The gas-liquid two-phase medium may be fully mixed by different resistance, so that uniform liquid distribution may be performed initially. In addition, the flow rate of the medium may be increased.
The plurality of padding members 121 may perform a function of uniformly mixing the medium and occupying internal space of the liquid distributor 10. When the gas-liquid two-phase medium flows into the liquid distributor 10, since a certain gap exists among the plurality of padding members 121, the gas-liquid two-phase medium may keep the relatively high flow rate, and may be interfered by the plurality of padding members 121, and collision interference may continue to occur on the gas-liquid two-phase medium, so that a mixing scale in the medium may become smaller, i.e., mixing uniformity of the gas-liquid two-phase medium may be improved, thereby improving heat exchange efficiency of the heat exchanger 100.
In an embodiment, the plurality of padding members 121 may be located in the first chamber 13 and be connected to the distribution plate 122. After the medium enters the first chamber 13, the gas-liquid two-phase medium may be uniformly mixed by the plurality of padding members 121 first, be uniformly distributed into the second chamber 14 by the plurality of distribution holes 1221, and then flow into the plurality of heat exchange tubes 20 for heat exchange, thereby further improving mixing uniformity of the medium.
In another embodiment, the plurality of padding members 121 may be located in the second chamber 14 and be connected to the distribution plate 122. After the medium enters the first chamber 13, the gas-liquid two-phase medium may be uniformly distributed into the second chamber 14 by the plurality of distribution holes 1221, further be uniformly mixed by the plurality of padding members 121, and then flow into the plurality of heat exchange tubes 20 for heat exchange, thereby further improving mixing uniformity of the medium.
In another embodiment, the plurality of padding members 121 may be located in the first chamber 13 and the second chamber 14, respectively, and be connected to the distribution plate 122, respectively. After the medium enters the first chamber 13, the gas-liquid two-phase medium may be uniformly mixed by the plurality of padding members 121 first, be uniformly distributed into the second chamber 14 by the plurality of distribution holes 1221, further be uniformly mixed by the plurality of padding members 121 in the second chamber 14, and then flow into the plurality of heat exchange tubes 20 for heat exchange, thereby further improving mixing uniformity of the medium.
Referring to
In an embodiment, the plate structure defined by the plurality of padding members 121 may be located in the first chamber 13 and be connected to the distribution plate 122. After the medium enters the first chamber 13, the medium may impact on the surface of the plurality of padding members 121, flow into a nearby liquid homogenizing hole 1211 for a first uniform distribution, flow through the liquid homogenizing hole 1211 to the plurality of distribution holes 1221, pass through the plurality of distribution holes 1221 for a second uniform distribution, enter the second chamber 14, and then flow into the plurality of heat exchange tubes 20 for heat exchange. Under a joint action of the plurality of padding members 121 and the plurality of distribution holes 1221, the gas-liquid two-phase medium may be mixed more uniformly, and uniform distribution may be implemented. In this way, the heat exchange efficiency of the heat exchanger 100 may further be improved.
In another embodiment, the plate structure defined by the plurality of padding members 121 may be located in the second chamber 14 and be connected to the distribution plate 122. After the medium enters the first chamber 13, the medium may pass through plurality of distribution holes 1221 for a first uniform distribution, enter the second chamber 14, impact on the surface of the plurality of padding members 121, flow out from a nearby liquid homogenizing hole 1211 for a second uniform distribution, and then flow into the plurality of heat exchange tubes 20 for heat exchange. Under a joint action of the plurality of padding members 121 and the plurality of distribution holes 1221, the gas-liquid two-phase medium may be mixed more uniformly, and uniform distribution may be implemented. In this way, the heat exchange efficiency of the heat exchanger 100 may further be improved.
In another embodiment, both the first chamber 13 and the second chamber 14 may be provided with the plate structure defined by the plurality of padding members 121, and connected to the distribution plate 122, respectively. After the medium enters the first chamber 13, the medium may impact on the surface of the plurality of padding members 121, flow into a nearby liquid homogenizing hole 1211 for a first uniform distribution, flow to the plurality of distribution hole 1221 for a second uniform distribution, and then enter the second chamber 14. In the second chamber 14, the medium may impact on the surface of the plurality of padding members 121, flow out from a nearby liquid homogenizing hole 1211 for a third uniform distribution, and then flow into the plurality of heat exchange tubes 20 for heat exchange. Under a joint action of the plurality of padding members 121 and the plurality of distribution holes 1221, the gas-liquid two-phase medium may be mixed more uniformly, and uniform distribution may be implemented. In this way, the heat exchange efficiency of the heat exchanger 100 may further be improved.
In an embodiment, referring to
In another embodiment, referring to
Referring to
Furthermore, the turbulence plate 15 may be provided with a plurality of turbulence holes 151 matched with shapes of the plurality of heat exchange tubes 20, and a cross-sectional area of each of the plurality of turbulence holes 151 may be greater than that of each of the plurality of distribution holes 1221. When the medium passes through the plurality of distribution holes 1221, the flow rate of the medium may be accelerated, so that the medium may further be mixed uniformly, and the heat exchange efficiency of the heat exchanger 100 may be improved.
Referring to
An inlet nozzle 40 may penetrate a sidewall of the sleeve 11 opposite to the heat exchange tubes 20. The plurality of heat exchange tubes 20 may penetrate through the sleeve 11, and the plurality of heat exchange tubes 20 may be disposed at intervals along a length direction of the sleeve 11.
Referring to
Referring to
A heat exchanger 100 is further provided in the present disclosure, including the liquid distributor 10, a plurality of fins 30, and the plurality of heat exchanger tubes 20. The plurality of fins 30 are disposed at intervals and in parallel. The plurality of heat exchange tubes 20 penetrate the plurality of fins 30, respectively, and an end of each of the plurality of heat exchange tubes 20 is in communication with the liquid distributor 10. The heat exchanger 100 further includes a manifold (not shown in the figures), and the manifold is configured to aggregate the medium after heat exchange.
In an embodiment, the plurality of heat exchange tubes 20 may be arranged at intervals along a height direction of the heat exchanger 100 to form a column. In other embodiments, the plurality of heat exchange tubes 20 may be arranged at intervals along a width direction of the heat exchanger 100 to form a plurality of columns, and heat exchange tubes 20 in adjacent columns may be connected by a bent tube. When the number of columns of the plurality of heat exchange tubes 20 is an odd number, the manifold may be located at a side of the heat exchanger 100 away from the liquid distributor 10. When the number of columns of the plurality of heat exchange tubes 20 is an even number, the manifold may be located at the same side of the heat exchanger 100 as the liquid distributor 10.
Furthermore, the heat exchanger 100 may further include a dispenser (not shown in the figures), and an end of the dispenser may be connected to the liquid distributor 10. The dispenser may include a capillary tube in communication with the inlet nozzle 40.
In a practical application, the liquid distributor 10 may be set vertically. When the heat exchanger 100 is in operation, the medium enters the inlet nozzle 40 from the capillary tube, enters the liquid distributor 10, enters the plurality of heat exchange tubes 20 after uniform distribution of the distribution structure 12 and the turbulence plate 15, and performs heat exchange with the outside by the plurality of fins 30. The medium after heat exchange is converged to the manifold to flow out.
Furthermore, referring to
In other embodiments, the quantity of the liquid distributors 10 and the quantity of the capillary tubes on the heat exchanger 100 may be changed as required. For example, both the quantity of the liquid distributors 10 and the quantity of the capillary tubes may be one, two, or three, as long as the quantity of the liquid distributors 10 is consistent with the quantity of the capillary tubes.
Furthermore, referring to
The various technical features of the above-described embodiments may be combined arbitrarily, and all possible combinations of the various technical features of the above-described embodiments have not been described for the sake of brevity of specification. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.
The foregoing embodiments represent only several implementation manners of the present disclosure, and descriptions thereof are relatively specific and detailed, but may not be construed as a limitation on the scope of the present disclosure. It should be noted that one skilled in the art may make some modifications and improvements without departing from the concept of the present disclosure, which are within the protection scope of the present disclosure. Therefore, the protection scope of the present disclosure shall be subject to the appended claims.
| Number | Date | Country | Kind |
|---|---|---|---|
| 202210669534.8 | Jun 2022 | CN | national |
| 202221486490.7 | Jun 2022 | CN | national |
This application continuation of international patent application No. PCT/CN2023/096861, filed on May 29, 2023, which itself claims priority to Chinese patent applications No. 202221486490.7, filed on Jun. 14, 2022, and titled “LIQUID DISTRIBUTOR AND HEAT EXCHANGER”, and No. 202210669534.8, filed on Jun. 14, 2022, and titled “LIQUID DISTRIBUTOR AND HEAT EXCHANGER”. The contents of the above identified applications are hereby incorporated herein in their entireties by reference.
| Number | Date | Country | |
|---|---|---|---|
| Parent | PCT/CN2023/096861 | May 2023 | WO |
| Child | 18981452 | US |
