Connection bracket, pump assembly and refrigeration system

Abstract

The present disclosure provides a connecting bracket, a pump assembly and a refrigeration system. The connecting bracket comprises a bracket body and a reinforcing body integrally formed on one side of the bracket body, the reinforcing body comprising a first rib group and a first mounting seat integrally arranged, the bracket body comprising a second mounting seat, a third mounting seat and a second rib group integrally arranged, the first mounting seat being connected to the second mounting seat through the first rib group, the second mounting seat and the third mounting seat being connected through the second rib group, the first mounting seat, the second mounting seat and the third mounting seat being configured to be connected with different components respectively. The pump assembly comprises a pump, a driving device and a connecting bracket, the pump and the driving device being connected through the connecting bracket. The refrigeration system comprises the pump assembly.

Description

Technical Field

[0001] This disclosure relates to the field of vibration damping structures, and in particular to a connecting bracket, pump assembly, and refrigeration system. Background Technology

[0002] As one of the key pieces of equipment in ship cooling systems, marine cooling water pumps are widely used in the main and auxiliary engine cooling systems of various ships. Their operational stability and reliability directly affect the safe operation of ship propulsion systems.

[0003] Because cooling water pumps operate continuously in complex environments, they must withstand vibrations and impacts caused by waves, wind, and the propulsion system during ship navigation, as well as maintain stable operation under dynamic conditions such as ship tilting and rolling. Therefore, higher requirements are placed on the structural strength, impact resistance, and vibration and noise control of cooling water pumps.

[0004] Traditional equipment vibration and noise reduction methods commonly employ spring dampers, rubber damping pads, or hydraulic dampers to reduce the transmission of vibrations generated during equipment operation. However, these traditional methods have low natural frequencies and cannot meet the equipment's requirements for resistance to impact, tilting, and swaying in harsh environments, severely impacting the equipment's reliability. Utility Model Content

[0005] The purpose of this disclosure is to provide a connecting bracket, pump assembly, and refrigeration system to improve and reduce the transmission of vibrations generated during the operation of a cooling water pump.

[0006] A first aspect of this disclosure provides a connection bracket, comprising:

[0007] The support body; and

[0008] A reinforcing body is formed on one side of the support body. The reinforcing body includes a first rib group and a first mounting base. The support body includes a second mounting base, a third mounting base, and a second rib group. The first mounting base is connected to the second mounting base through the first rib group. The second mounting base and the third mounting base are connected through the second rib group. The first mounting base, the second mounting base, and the third mounting base are configured to be connected to different components, respectively.

[0009] In some embodiments,

[0010] The first rib group includes a first annular rib and a plurality of first extending ribs, the plurality of first extending ribs extending between the first annular rib and the outer edge of the second mounting base, and at least two of the first extending ribs extending in different directions; and / or

[0011] The second rib group includes a second annular rib and a plurality of second extended ribs, the plurality of second extended ribs extending between the second annular rib and the outer edge of the second mounting base, and at least two of the second extended ribs extending in different directions.

[0012] In some embodiments,

[0013] Multiple first extending ribs are arranged divergently; and / or

[0014] Multiple second extension ribs are arranged in a divergent manner.

[0015] In some embodiments,

[0016] Multiple first extending ribs extend in a straight line; and / or

[0017] The second mounting base has a connecting structure at its corner, the first rib group includes corner ribs, and each corner of the second mounting base has at least one corner rib, with each corner rib surrounding the side of the connecting structure near the interior of the second mounting base.

[0018] In some embodiments, the plurality of the first extended stiffeners include:

[0019] Vertical ribs extend along the first direction of the second mounting base;

[0020] A transverse rib extends along a second direction of the second mounting base, wherein the second direction is perpendicular to the first direction; and

[0021] The diagonal ribs are arranged at an angle to both the horizontal and vertical ribs, and at least one diagonal rib is provided between adjacent horizontal and vertical ribs.

[0022] In some embodiments, the oblique rib extends from the first annular rib to the corner of the second mounting base and intersects with at least one of the corner ribs.

[0023] In some embodiments, the corner ribs are arc-shaped.

[0024] In some embodiments, the first group of reinforcing bars satisfies at least one of the following dimensional and / or angular relationships:

[0025] V1*1 / 5≤R1≤V1*1 / 2, where R1 represents the inner radius of the first annular rib and V1 represents the dimension of the second mounting base along the first direction;

[0026] a6≤h1, where a6 represents the width of the first annular rib and h1 represents the height of the first rib group;

[0027] h1≤30mm, where h1 represents the height of the first stiffener group;

[0028] a1=a2, where a1 represents the width of the vertical rib and a2 represents the width of the horizontal rib;

[0029] 20mm≤a1≤30mm, where a1 represents the width of the vertical rib;

[0030] 15mm≤a3≤20mm, where a3 represents the width of the inclined rib;

[0031] Each corner of the second mounting base is provided with a plurality of corner ribs at intervals, b3≥2*b4, where b3 represents the length of the diagonal rib and b4 represents the spacing between two adjacent corner ribs;

[0032] 30°≤c1≤60°, where c1 represents the angle between the vertical rib and the diagonal rib;

[0033] 30°≤c3≤60°, where c3 represents the angle between the transverse stiffener and the oblique stiffener;

[0034] a4 = a3, where a4 represents the width of the corner rib and a3 represents the width of the diagonal rib.

[0035] In some embodiments, the first set of reinforcing bars includes:

[0036] The first connecting rib has its two ends connected to the two corner ribs and intersects with the vertical rib; and / or

[0037] The second connecting rib has its two ends connected to the two corner ribs and intersects with the transverse rib.

[0038] In some embodiments, the first connecting rib is arc-shaped, and / or the second connecting rib is arc-shaped.

[0039] In some embodiments, the first rib group includes a plurality of nested first annular ribs.

[0040] In some embodiments, the second extending rib includes a first rib segment and a second rib segment, the first rib segment extending from the outside of the second annular rib toward the outer edge of the second mounting base, and the second rib segment disposed at the outer edge of the second mounting base and extending in the direction of the outer edge of the second mounting base.

[0041] In some embodiments, the second group of reinforcing bars satisfies at least one of the following dimensional and / or angular relationships:

[0042] R2=R1, where R1 represents the inner radius of the first annular rib and R2 represents the inner radius of the second annular rib;

[0043] h2 = 2 * h1, where h1 represents the height of the first stiffener group and h2 represents the height of the second stiffener group;

[0044] a6 = a8, where a6 represents the width of the first annular rib and a8 represents the width of the second annular rib;

[0045] a3 = a7, where a3 represents the width of the first extended rib and a7 represents the width of the first rib segment;

[0046] The second rib segment extends along a second direction perpendicular to the first direction, 30°≤c4≤60°, and / or, 120°≤c5≤150°, where c4 represents the angle between the first rib segment and the first direction, and c5 represents the angle between two adjacent first rib segments along the first direction y.

[0047] a12 = a7, where a7 represents the width of the first rib segment and a12 represents the width of the second rib segment;

[0048] At least one of the plurality of first extending ribs has the same extending direction as the second rib segment, b5=b2, where b5 represents the length of the second rib segment and b2 represents the length of the first extending rib that has the same extending direction as the second rib segment.

[0049] In some embodiments, the bracket body and the reinforcing body are integrally formed, and / or, the first rib group and the first mounting base are integrally disposed, and / or, the second mounting base, the third mounting base and the second rib group are integrally disposed.

[0050] In the connecting bracket provided in the embodiments of this disclosure, the bracket body and the reinforcing body are integrally formed to form a double-layer bracket structure. The first rib group is composed of multiple ribs. The multiple ribs integrally connected to the second mounting seat in the first rib group can not only play a structural constraint role on the bracket body and improve the load-bearing capacity of the connecting bracket, but also serve as a vibration damping structure to prevent the transmission of vibration waves between the bracket body and the first mounting seat. Furthermore, the second mounting seat and the third mounting seat in the main bracket body are also integrally connected by the second rib group composed of multiple ribs, which can further prevent the transmission of vibration waves between the second mounting seat and the third mounting seat, thereby effectively preventing the vibration from being transmitted between the first mounting seat, the second mounting seat and the third mounting seat, and suppressing the accumulation of vibration energy.

[0051] Because the connecting bracket provided in the embodiments of this disclosure can improve the rigidity of the connecting bracket, the connecting bracket is not prone to large deformation, reducing the risk of secondary vibration caused by local structural deformation, and increasing the natural frequency of the connecting bracket, which helps the connecting bracket to better resist low-frequency vibration.

[0052] When the connecting bracket is used as a fixed support for the cooling water pump, it enhances the pump's resistance to deformation under vibration, thereby improving the overall structural stability. It can also handle vibration from components mounted on different mounting bases, achieving comprehensive vibration reduction control of the cooling water pump in multi-degree-of-freedom vibration environments and addressing the issue of excessive low-frequency vibration. By reducing the vibration and noise levels during pump operation, it also reduces vibration-induced fatigue damage and extends the equipment's service life.

[0053] A second aspect of this disclosure provides a pump assembly, comprising:

[0054] Pump;

[0055] A drive unit, configured to drive the pump; and

[0056] The pump and the drive device are connected via the connecting bracket described in the first aspect of this disclosure.

[0057] The pump assembly provided in this disclosure has the advantages of the connection bracket provided in this disclosure.

[0058] In some embodiments, the drive unit is mounted on the first mounting base, and the pump is mounted on the third mounting base, the third mounting base being configured to be connected to the base of the pump.

[0059] In some embodiments, the pump includes a pump body, a fluid inlet, and a fluid outlet, wherein,

[0060] The fluid inlet is provided with a third rib group, which includes a third annular rib and a plurality of third extended ribs. The third annular rib surrounds the outer periphery of the fluid inlet, and the plurality of third extended ribs are distributed on the outer periphery of the fluid inlet and extend along the axial direction of the fluid inlet. The third annular rib and the plurality of third extended ribs are arranged intersectingly, and at least one of the third extended ribs is connected to the pump body; and / or

[0061] The fluid outlet is provided with a fourth rib group, which includes a fourth annular rib and a plurality of fourth extended ribs. The fourth annular rib surrounds the outer periphery of the fluid outlet, and the plurality of fourth extended ribs are distributed on the outer periphery of the fluid outlet and extend along the axial direction of the fluid outlet. The fourth annular rib and the plurality of fourth extended ribs are arranged intersectingly, and at least one of the fourth extended ribs is connected to the pump body.

[0062] In some embodiments,

[0063] a9 = a10, where a9 represents the width of the third annular rib, and a10 represents the width of the third extended rib; and / or

[0064] The third extending rib is divided by the third annular rib into a third rib segment away from the pump body and a fourth rib segment close to the pump body. The fourth extending rib is divided by the fourth annular rib into a fifth rib segment away from the pump body and a sixth rib segment close to the pump body. Wherein, b9≥1 / 3*b8, and / or, a9=a11=a13, and / or, h4=h3, b8 represents the length of the sixth rib segment, b9 represents the length of the fifth rib segment; a9 represents the width of the third annular rib, a11 represents the width of the sixth rib segment, a13 represents the width of the fourth annular rib, h3 represents the height of the third extending rib, and h4 represents the height of the end of the sixth rib segment connected to the fourth annular rib.

[0065] A third aspect of this disclosure provides a refrigeration system including the pump assembly described in the second aspect of this disclosure.

[0066] The refrigeration system provided in this disclosure has the advantages of the pump assembly provided in this disclosure.

[0067] Other features and advantages of this disclosure will become clear from the following detailed description of exemplary embodiments with reference to the accompanying drawings. Attached Figure Description

[0068] The accompanying drawings, which are included to provide a further understanding of this disclosure and form part of this application, illustrate exemplary embodiments of this disclosure and are used to explain this disclosure, but do not constitute an undue limitation of this disclosure. In the drawings:

[0069] Figure 1 This is a schematic diagram of the structure of a pump assembly according to some embodiments of this disclosure.

[0070] Figure 2 This is a schematic diagram of the structure of a connecting bracket according to some embodiments of this disclosure.

[0071] Figure 3 This is a top view of the connecting bracket of some embodiments of this disclosure.

[0072] Figure 4 This is a bottom view of the connecting bracket of some embodiments of this disclosure.

[0073] Figure 5This is a cross-sectional structural diagram of the first rib group of the connecting bracket according to some embodiments of the present disclosure.

[0074] Figure 6 for Figure 4 The diagram shows a cross-sectional view of the first rib group.

[0075] Figure 7 This is a cross-sectional structural diagram of the first rib group of the connecting bracket according to some other embodiments of the present disclosure.

[0076] Figure 8 This is a cross-sectional structural diagram of the second rib group of the connecting bracket according to some embodiments of this disclosure.

[0077] Figure 9 for Figure 7 The diagram shows the cross-sectional structure of the second stiffener group.

[0078] Figure 10 This is a cross-sectional structural diagram of a connecting bracket according to some embodiments of the present disclosure.

[0079] Figure 11 The above are frequency response function graphs of connection brackets in some embodiments of this disclosure and connection brackets in related technologies.

[0080] Figure 12 This is a schematic diagram of the first-order mode of the connecting bracket in the related technology.

[0081] Figure 13 This is a schematic diagram of the first mode of the connecting bracket according to some embodiments of this disclosure.

[0082] Figure 14 This is a schematic diagram of the second-order mode of the connecting bracket according to some embodiments of this disclosure.

[0083] Figure 15 This is a schematic diagram of the third mode of the connecting bracket according to some embodiments of this disclosure.

[0084] Figure 16 This is a schematic diagram of the structure of a pump according to some embodiments of this disclosure.

[0085] Figure 17 for Figure 16 The diagram shows the structure of the pump from another perspective.

[0086] Figure 18 for Figure 16 The diagram shows the pump from another perspective.

[0087] Figure 19 for Figure 16 The diagram shows the structure of the pump from another perspective.

[0088] Figure 20This is a schematic diagram of the structure of a flexible joint according to some embodiments of this disclosure.

[0089] Figure 21 This is a schematic diagram of the structure of the water inlet pipe assembly according to some embodiments of this disclosure.

[0090] Figure 22 This is a schematic diagram of the structure of a different diameter adapter pipe according to some embodiments of this disclosure.

[0091] Figure 23 This is a schematic diagram of the structure of the water outlet pipe assembly according to some embodiments of this disclosure.

[0092] In the attached figures, the various reference numerals represent:

[0093] 10. Drive unit;

[0094] 20. Connecting bracket;

[0095] 201, First mounting base; 2011, First connecting hole;

[0096] 202. Second mounting bracket;

[0097] 203. Second reinforcing bar group; 2031. First reinforcing bar segment; 2032. Second reinforcing bar segment; 2033. Second annular reinforcing bar;

[0098] 204. First stiffener group; 2041. Corner stiffener; 2043. Vertical stiffener; 2044. Diagonal stiffener; 2045. First annular stiffener; 2046. Horizontal stiffener; 2048. First connecting stiffener; 2049. Second connecting stiffener;

[0099] 205. Third mounting base; 2051. Second connecting hole;

[0100] 206. Connection structure;

[0101] 30. Pump;

[0102] 301. Mounting end face; 3011. Third connecting hole; 302. Fluid inlet; 303. Fluid outlet;

[0103] 304, Third reinforcing bar group; 3041, Third annular reinforcing bar; 3042, Third reinforcing bar segment; 3043, Fourth reinforcing bar segment;

[0104] 305, Fourth reinforcing bar group; 3051, Fourth annular reinforcing bar; 3052, Fifth reinforcing bar segment; 3053, Sixth reinforcing bar segment;

[0105] 306. Pump body;

[0106] 307. Reinforcing ribs;

[0107] 40. Flexible joint; 401. Elastic part; 402. Fifth flange;

[0108] 50. Water inlet pipe assembly; 501. First flange; 502. First water inlet pipe body; 503. Second water inlet pipe body; 504. First pressure testing pipe;

[0109] 60. Reducing adapter; 601. Third flange; 602. Reducing adapter body; 603. Fourth flange;

[0110] 70. Outlet pipe assembly; 701. Second flange; 702. Second pressure testing pipe; 703. Outlet pipe body. Detailed Implementation

[0111] The technical solutions of the embodiments of this disclosure will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this disclosure, and not all embodiments. The following description of at least one exemplary embodiment is merely illustrative and is in no way intended to limit this disclosure or its application or use. All other embodiments obtained by those skilled in the art based on the embodiments of this disclosure without creative effort are within the scope of protection of this disclosure.

[0112] Unless otherwise specifically stated, the relative arrangement, numerical expressions, and values ​​of the components and steps set forth in these embodiments do not limit the scope of this disclosure. It should also be understood that, for ease of description, the dimensions of the various parts shown in the drawings are not drawn to actual scale. Techniques, methods, and devices known to those skilled in the art may not be discussed in detail, but where appropriate, such techniques, methods, and devices should be considered part of the specification. In all examples shown and discussed herein, any specific values ​​should be interpreted as merely exemplary and not as limitations. Therefore, other examples of exemplary embodiments may have different values. It should be noted that similar reference numerals and letters in the following drawings denote similar items; therefore, once an item is defined in one drawing, it need not be further discussed in subsequent drawings.

[0113] In the description of this disclosure, it should be understood that the use of terms such as "first" and "second" to define components is merely for the purpose of distinguishing the corresponding components. Unless otherwise stated, the above terms have no special meaning and therefore should not be construed as limiting the scope of protection of this disclosure.

[0114] In the description of this disclosure, it should be understood that the orientation or positional relationship indicated by directional terms such as "front, back, up, down, left, right", "horizontal, vertical, horizontal" and "top, bottom" is generally based on the orientation or positional relationship shown in the accompanying drawings and is only for the convenience of describing this disclosure and simplifying the description. Unless otherwise stated, these directional terms do not indicate or imply that the device or element referred to must have a specific orientation or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation on the scope of protection of this disclosure; the directional terms "inner" and "outer" refer to the inner and outer contours relative to the outline of each component itself.

[0115] refer to Figures 1 to 15 Some embodiments of this disclosure provide a connecting bracket, including a bracket body and a reinforcing member formed on one side of the bracket body. The reinforcing member includes a first rib group 204 and a first mounting base 201. The bracket body includes a second mounting base 202, a third mounting base 205, and a second rib group 203. The first mounting base 201 is connected to the second mounting base 202 via the first rib group 204. The second mounting base 202 and the third mounting base 205 are connected via the second rib group 203. The first mounting base 201, the second mounting base 202, and the third mounting base 205 are configured to be connected to different components, respectively.

[0116] Optionally, refer to Figure 2 The reinforcing body and the support body are arranged in layers along the height direction of the support body. Correspondingly, the first mounting base 201, the first rib group 204, the second mounting base 202, the second rib group 203 and the third mounting base 205 are connected in sequence along the height direction of the support body.

[0117] In the connecting bracket 20, the device or component connected to one or more of the components of the first mounting base 201, the second mounting base 202, and the third mounting base 205 can be a device or component that generates vibration, for example, referring to... Figure 1 The connecting bracket 20 can serve as a connecting bracket for mounting the pump 30 on the base. The drive device 10 of the pump 30 is mounted on the first mounting base 201, the pump 30 is mounted on the third mounting base 205, and the connecting bracket 20 is mounted on the base via the second mounting base 202.

[0118] Optionally, refer to Figure 2 and Figure 3 The first mounting base 201 is provided with a first connecting hole 2011, and the drive device 10 can be mounted on the first mounting base 201 via a threaded connector and the first connecting hole 2011. Optionally, refer to Figure 4 The third mounting base 205 is provided with a second connecting hole 2051, and the pump 30 can be installed on the third mounting base 205 through a threaded connector and the second connecting hole 2051.

[0119] In the connecting bracket 20 provided in the embodiments of this disclosure, the bracket body and the reinforcing body form a double-layer bracket structure. The first rib group 204 is composed of multiple ribs. The multiple ribs in the first rib group 204 connected to the second mounting seat 202 can not only play a structural constraint role on the bracket body and improve the load-bearing capacity of the connecting bracket 20, but also serve as a vibration damping structure to prevent the transmission of vibration waves between the bracket body and the first mounting seat 201. Furthermore, the second mounting seat 202 and the third mounting seat 205 in the main bracket body are also connected by the second rib group 203 composed of multiple ribs, which can further prevent the transmission of vibration waves between the second mounting seat 202 and the third mounting seat 205, thereby effectively preventing the vibration from being transmitted between the first mounting seat 201, the second mounting seat 202 and the third mounting seat 205 and suppressing the accumulation of vibration energy.

[0120] Because the connecting bracket 20 provided in the embodiments of this disclosure can improve the rigidity of the connecting bracket, the connecting bracket 20 is not prone to large deformation, reducing the risk of secondary vibration caused by local structural deformation, and increasing the natural frequency of the connecting bracket 20, which is beneficial for the connecting bracket 20 to better resist low-frequency vibration.

[0121] When the connecting bracket 20 is used as a fixed support for the cooling water pump, it enables the pump to have stronger resistance to deformation under vibration excitation, thereby improving the overall structural stability. It can also cope with vibration excitation from components mounted on different mounting bases, achieving comprehensive vibration reduction control of the cooling water pump in multi-degree-of-freedom vibration environments and improving the problem of large low-frequency vibration in the cooling water pump. By reducing the vibration and noise levels during the operation of the cooling water pump, fatigue damage caused by vibration can also be reduced, extending the service life of the equipment.

[0122] In some embodiments of the connecting bracket, the bracket body and the reinforcing body are integrally formed, and / or the first rib group 204 and the first mounting base 201 are integrally disposed, and / or the second mounting base 202, the third mounting base 205 and the second rib group 203 are integrally disposed.

[0123] Optionally, refer to Figures 2 to 10 The first mounting base 201, the first rib group 204, the second mounting base 202, the third mounting base 205, and the second rib group 203 are all integrally formed. The various parts of the connecting bracket can be integrally formed, for example, by casting.

[0124] The arrangement of the connecting bracket in this embodiment has at least one of the following advantages: improving the structural continuity between the bracket body and the reinforcing body; improving the structural continuity of each part of the reinforcing body; and improving the structural continuity of each part of the bracket body. Therefore, the connecting bracket 20 in this embodiment has stronger overall deformation resistance and greater stiffness, which helps it better resist low-frequency vibrations.

[0125] In some embodiments of the connecting bracket, the first rib group 204 includes a first annular rib 2045 and a plurality of first extended ribs, the plurality of first extended ribs extending between the outer edges of the first annular rib 2045 and the second mounting base 202, and at least two of the first extended ribs extending in different directions.

[0126] In some embodiments of the connecting bracket, the second rib group 203 includes a second annular rib 2033 and a plurality of second extended ribs, the plurality of second extended ribs extending between the second annular rib 2033 and the outer edge of the second mounting base 202, and at least two of the second extended ribs extending in different directions.

[0127] Optionally, a through cavity is formed inside the first annular rib 2045 and the second annular rib 2033 so that the drive shaft of the drive device 10 of the pump 30 can pass through the cavity and drive the pump 30.

[0128] In this embodiment, the first rib group 204 and the second rib group 203 can cope with vibration excitation from different directions. Specifically, the first annular rib 2045 and the second annular rib 2033 can prevent vibration waves from propagating from the center region to the edge region or from the edge region to the center region of the connecting bracket 20. The first extended rib and the second extended rib can prevent vibration waves from propagating circumferentially along the connecting bracket 20. Furthermore, when vibration waves propagate between the first mounting base 201 and the second mounting base 202, or between the second mounting base 202 and the third mounting base 205, they can also be attenuated by the first rib group 204 and the second rib group 203.

[0129] Furthermore, the first and second extension ribs with different extension directions can form non-parallel vibration damping structures in areas other than the corresponding annular ribs. For vibration waves that pass perpendicularly through one of the first or second extension ribs, when they are transmitted to the other first or second extension rib with a different extension direction, they will enter the other first or second extension rib with a different extension direction at an angle, extending the path through the vibration damping structure and thus further improving the vibration damping effect.

[0130] In some embodiments of the connecting bracket, a plurality of first extending ribs are arranged divergingly, and / or a plurality of second extending ribs are arranged divergingly.

[0131] Optionally, a plurality of first extending ribs are arranged radially. Optionally, a plurality of second extending ribs are arranged radially.

[0132] In this embodiment, multiple first extending ribs are distributed divergently, ensuring that the rib setting area fully covers the region between the outer edges of the first annular rib 2045 and the second mounting base 202. Similarly, multiple second extending ribs are distributed divergently in the region between the outer edges of the first annular rib 2045 and the second mounting base 202, ensuring that the rib setting area fully covers the region between the outer edges of the second annular rib 2033 and the second mounting base 202. Therefore, the rib setting method in this embodiment can make the stiffness distribution of the connecting bracket 20 more uniform, reduce weak stiffness areas, and also make the damping distribution of the connecting bracket 20 more uniform, achieving a good vibration damping effect.

[0133] In some embodiments of the connecting bracket, a plurality of first extending ribs extend in a straight line.

[0134] In this embodiment, multiple first extension ribs extend along a straight line and at least two of the first extension ribs extend in different directions. The angle between the first extension ribs with different extension directions is fixed, which is beneficial for the vibration wave to enter the other first extension rib with a different extension direction at an angle.

[0135] refer to Figures 5 to 7 In some embodiments of the connecting bracket, the corner of the second mounting base 202 is provided with a connecting structure 206, the first rib group 204 includes corner ribs 2041, each corner of the second mounting base 202 is provided with at least one corner rib 2041, and each corner rib 2041 surrounds the side of the connecting structure 206 near the interior of the second mounting base 202.

[0136] Optionally, the connecting bracket 20 is a mounting bracket for the pump 30, and the connecting structure 206 is a mounting foot for the pump 30.

[0137] Optionally, each corner of the second mounting base 202 is provided with a plurality of corner ribs 2041 at intervals. The plurality of corner ribs 2041 are arranged at intervals along the diagonal direction of the second mounting base 202, and both ends of each corner rib 2041 extend to the outer contour of the second mounting base 202. Optionally, refer to Figure 6 Each corner of the second mounting base 202 is provided with two corner ribs 2041 at intervals, and the widths of the two corner ribs 2041 are a4 and a5 respectively, and a4=a5.

[0138] In this embodiment, the corner rib 2041 can increase the rigidity of the location of the connecting structure 206 and prevent vibration waves from being transmitted to the corner of the connecting bracket 20.

[0139] refer to Figures 5 to 7, in the connecting bracket of some embodiments, the plurality of first extending ribs include vertical ribs 2043, transverse ribs 2046 and oblique ribs 2044. The vertical ribs 2043 extend along the first direction y of the second mounting base 202. The transverse ribs 2046 extend along the second direction x of the second mounting base 202, wherein the second direction x is perpendicular to the first direction y. The oblique ribs 2044 are arranged at an included angle with both the transverse ribs 2046 and the vertical ribs 2043, and at least one oblique rib 2044 is arranged between adjacent transverse ribs 2046 and vertical ribs 2043.

[0140] Reference Figure 6 , the included angle c2 between adjacent transverse ribs 2046 and vertical ribs 2043 is 90°. Optionally, on a cross section perpendicular to the third direction z, the two transverse ribs 2046 respectively extend along the radial direction of the first annular rib 2045, the two vertical ribs 2043 respectively extend along the radial direction of the first annular rib 2045, the oblique ribs 2044 on both sides of each transverse rib 2046 in the first direction y are symmetrically arranged about the center line of the corresponding transverse rib 2046 in the second direction x, and the oblique ribs 2044 on both sides of each vertical rib 2043 in the second direction x are symmetrically arranged about the center line of the corresponding vertical rib 2043 in the first direction y, wherein the third direction z is perpendicular to both the first direction y and the second direction x.

[0141] In this embodiment, the vertical ribs 2043 and the transverse ribs 2046 can respectively increase the stiffness of the connecting bracket 20 along the first direction y and the second direction x, while the oblique ribs 2044 can increase the stiffness of the area of the connecting bracket 20 between the vertical ribs 2043 and adjacent transverse ribs 2046. The vertical ribs 2043, transverse ribs 2046 and oblique ribs 2044 form a radial "米"-shaped composite vibration damping structure. Based on such a composite vibration damping structure, the ability of the connecting bracket 20 to cope with vibration excitation from different directions can be improved.

[0142] In the connecting bracket of some embodiments, the oblique ribs 2044 extend from the first annular rib 2045 toward the corners of the second mounting base 202, and intersect with at least one corner rib 2041.

[0143] Optionally, reference Figures 5 to 7 , a plurality of corner ribs 2041 are arranged at each corner of the second mounting base 202, and the oblique ribs 2044 intersect with all the plurality of corner ribs 2041 arranged at each corner of the second mounting base 202.

[0144] In this embodiment, one end of the inclined rib 2044 is connected to the first annular rib 2045, and the other end is connected to at least one corner rib 2041. The vibration damping range spans the center and corners of the connecting bracket 20, thus further improving the vibration damping effect.

[0145] In some embodiments of the connecting bracket, the corner ribs 2041 are arc-shaped.

[0146] Optionally, refer to Figures 5 to 7 The corner rib 2041 is rounded. Optionally, refer to... Figures 5 to 7 The corner ribs 2041 are set to protrude towards the inside of the connecting bracket 20.

[0147] In this embodiment, the arc-shaped corner rib 2041 can block both vibration waves from the internal region of the connecting bracket 20 and vibration waves transmitted along the circumference of the connecting bracket. During the transmission to the corner of the connecting bracket 20, vibration waves from different directions can be effectively attenuated.

[0148] refer to Figures 5 to 6 In some embodiments of the connecting bracket, the first rib group 204 satisfies at least one of the following dimensional and / or angular relationships.

[0149] V1*1 / 5≤R1≤V1*1 / 2, where R1 represents the inner radius of the first annular rib 2045, and V1 represents the dimension of the second mounting base 202 along the first direction y.

[0150] Within this size range, the first annular rib 2045 can adequately cover the central area of ​​the connecting bracket 20, thus providing significant vibration damping. Optionally, refer to... Figure 6 The dimension V1 of the second mounting base 202 along the first direction y is greater than the dimension V2 of the second mounting base 202 along the second direction x. Correspondingly, the length b1 of the vertical rib 2043 is greater than the length b2 of the horizontal rib 2046.

[0151] a6≤h1, where a6 represents the width of the first annular rib 2045 and h1 represents the height of the first rib group 204.

[0152] h1≤30mm, where h1 represents the height of the first stiffener group 204.

[0153] When the weight of the connecting bracket 20 is constant, the larger h1 is, the better the vibration damping effect of the first rib group 204. Therefore, under the premise of ensuring the weight of the connecting bracket 20, h1 should be as large as possible so that the first rib group 204 can better block the transmission of vibration waves. In some embodiments, the vibration isolation effect is best when h1 = 30mm.

[0154] When a6=h1, the width and height of the first annular rib 2045 are the same.

[0155] a1=a2, where a1 represents the width of the vertical rib 2043 and a2 represents the width of the horizontal rib 2046.

[0156] 20mm≤a1≤30mm, where a1 represents the width of the vertical stiffener 2043.

[0157] 15mm≤a3≤20mm, where a3 represents the width of the diagonal rib 2044.

[0158] The second mounting base 202 has multiple corner ribs 2041 spaced apart at each corner, where b3≥2*b4, b3 represents the length of the diagonal rib 2044, and b4 represents the spacing between two adjacent corner ribs 2041.

[0159] 30°≤c1≤60°, where c1 represents the angle between the vertical stiffener 2043 and the diagonal stiffener 2044.

[0160] 30°≤c3≤60°, where c3 represents the angle between the transverse stiffener 2046 and the diagonal stiffener 2044.

[0161] for Figure 5 and Figure 6 With the setting method, when c1=30° and c3=60°, or when c1=60° and c3=30°, the radial composite vibration damping structure formed by the vertical stiffener 2043, the horizontal stiffener 2046 and the diagonal stiffener 2044 achieves the best vibration damping effect.

[0162] a4 = a3, where a4 represents the width of the corner rib 2041 and a3 represents the width of the diagonal rib 2044.

[0163] The consistent width of the corner ribs 2041 and the diagonal ribs 2044 facilitates the consistency of the stiffness enhancement effect of the connecting bracket 20 at different positions, and maintains the consistency of the vibration isolation effect of the first rib group 204 in different directions.

[0164] The dimensional and / or angular relationships adopted in this embodiment can further improve the vibration reduction effect of the connecting bracket 20.

[0165] refer to Figure 7 In some embodiments of the connecting bracket, the first rib group 204 includes a first connecting rib 2048 and / or a second connecting rib 2049. The two ends of the first connecting rib 2048 are respectively connected to two corner ribs 2041 and intersect with a vertical rib 2043. The two ends of the second connecting rib 2049 are respectively connected to two corner ribs 2041 and intersect with a horizontal rib 2046.

[0166] Optionally, refer to Figure 7 At least one first connecting rib 2048, for example, a single first connecting rib 2048, is connected between two adjacent corners of the second mounting base 202 along the first direction y. Optionally, at least one second connecting rib 2049 is connected between two adjacent corners of the second mounting base 202 along the second direction x, for example, referring to... Figure 7 Two second connecting ribs 2049 are arranged at intervals along the first direction y.

[0167] In this embodiment, by setting the first connecting rib 2048 and / or the second connecting rib 2049, the stiffness of the edge positions of the connecting bracket 20 along the second direction x and the first direction y can be further increased, and the vibration damping effect at the location can be improved.

[0168] In some embodiments, reference Figure 7 The first connecting rib 2048 is arc-shaped. In some embodiments, reference... Figure 7 The second connecting rib 2049 is arc-shaped.

[0169] Optionally, refer to Figure 7 The first connecting rib 2048 is arc-shaped, and the second connecting rib 2049 is arc-shaped. Optionally, refer to... Figure 7 The first connecting rib 2048 protrudes inward toward the connecting bracket 20, and the second connecting rib 2049 protrudes inward toward the connecting bracket 20. The two ends of the first connecting rib 2048 are respectively connected to the ends of the two corner ribs 2041.

[0170] In this embodiment, the arc-shaped first connecting rib 2048 and the arc-shaped second connecting rib 2049 can both block vibration waves from the internal region of the connecting bracket 20 and vibration waves transmitted along the circumference of the connecting bracket. During the transmission to the edge of the connecting bracket 20, vibration waves from different directions can be effectively attenuated.

[0171] refer to Figure 7 In some embodiments of the connecting bracket, the first rib group 204 includes a plurality of nested first annular ribs 2045.

[0172] Optionally, refer to Figure 7 One end of the oblique rib 2044 is connected to the outermost of the plurality of first annular ribs 2045.

[0173] In this embodiment, by setting multiple nested first annular ribs 2045, the resistance of the ribs to the vibration wave can be further increased when the vibration wave is transmitted between the central region and the edge region of the connecting bracket 20, thereby further improving the vibration damping effect.

[0174] refer to Figure 8 and Figure 9 In some embodiments of the connecting bracket, the second extending rib includes a first rib segment 2031 and a second rib segment 2032. The first rib segment 2031 extends from the outside of the second annular rib 2033 to the outer edge of the second mounting base 202, and the second rib segment 2032 is disposed on the outer edge of the second mounting base 202 and extends in the direction of the outer edge of the second mounting base 202.

[0175] Optionally, refer to Figure 8 and Figure 9 The second stiffener group 203 includes four second extended stiffeners, which are symmetrically distributed about a plane perpendicular to the second direction x. Optionally, refer to Figure 8 and Figure 9 The second reinforcing bar segment 2032 extends along the second direction x.

[0176] In this embodiment, the first rib segment 2031 can prevent the vibration wave from being transmitted along the circumference of the connecting bracket 20, and the second rib segment 2032 can prevent the vibration wave from being transmitted from the edge area of ​​the connecting bracket 20 to the center area, thereby achieving the corresponding vibration damping effect.

[0177] Based on the arrangement of the second rib group 203 in this embodiment, the vibration acceleration level at the location of the connecting structure 206 can be reduced from 105dB to 99.8dB, a reduction of 5.2dB. It can be seen that the connecting bracket 20 in the above embodiment can effectively attenuate the vibration and noise at the location of the connecting structure 206.

[0178] refer to Figures 5 to 10 In some embodiments of the connecting bracket, the second rib group 203 satisfies at least one of the following dimensional and / or angular relationships.

[0179] R2 = R1, where R1 represents the inner radius of the first annular rib 2045 and R2 represents the inner radius of the second annular rib 2033.

[0180] h2 = 2 * h1, where h1 represents the height of the first stiffener group 204 and h2 represents the height of the second stiffener group 203.

[0181] Given a fixed rib width, the greater the rib height, the more significant the vibration damping effect. This design allows vibration waves to be significantly attenuated after passing through the second rib group 203.

[0182] a6 = a8, where a6 represents the width of the first annular rib 2045 and a8 represents the width of the second annular rib 2033.

[0183] The arrangement of having the same width for the first annular rib 2045 and the second annular rib 2033 helps to maintain the consistency of the effect of the first rib group 204 and the second rib group 203 in strengthening the rigidity of the connecting bracket 20, as well as the consistency of the vibration isolation effect of the first rib group 204 and the second rib group 203 in the direction from the edge to the center of the connecting bracket 20.

[0184] a3 = a7, where a3 represents the width of the first extended rib and a7 represents the width of the first rib segment 2031.

[0185] The arrangement that the width of the first extended rib is the same as the width of the first rib segment 2031 helps to maintain the consistency of the stiffness enhancement effect of the first rib group 204 and the second rib group 203, as well as the consistency of the circumferential vibration isolation effect of the first rib group 204 and the second rib group 203 in the connecting bracket 20.

[0186] The second reinforcing bar segment 2032 extends along a second direction x perpendicular to the first direction y, 30°≤c4≤60°, and / or, 120°≤c5≤150°, where c4 represents the angle between the first reinforcing bar segment 2031 and the first direction y, and c5 represents the angle between two adjacent first reinforcing bar segments 2031 along the first direction y.

[0187] The aforementioned angle range allows the effect of the second rib segment 2032 in enhancing rigidity to cover the area between the edge of the connecting bracket 20 and the second annular rib 2033 more evenly.

[0188] a12 = a7, where a7 represents the width of the first reinforcing bar segment 2031 and a12 represents the width of the second reinforcing bar segment 2032.

[0189] The arrangement that the width of the first extended rib is the same as the width of the second rib segment 2032 helps to maintain the consistency of the reinforcing stiffness of the second extended rib at different positions of the connecting bracket 20, as well as the consistency of the circumferential vibration isolation effect of the first rib group 204 and the second rib group 203 in the connecting bracket 20.

[0190] At least one of the plurality of first extending ribs has the same extending direction as the second rib segment 2032, b5=b2, where b5 represents the length of the second rib segment 2032 and b2 represents the length of the first extending rib that has the same extending direction as the second rib segment 2032.

[0191] Figure 6 In the diagram, b6 represents the length of the first reinforcing bar segment 2031. Figures 5 to 9In the embodiment shown, the first extending rib with the same extending direction as the second rib segment 2032 is the transverse rib 2046, and b2 is the length of the transverse rib 2046.

[0192] The dimensional and / or angular relationships adopted in this embodiment can further enhance the vibration damping effect of the connecting bracket 20.

[0193] Figure 11 Frequency response function curves of the connecting bracket 20 of some embodiments of this disclosure and the connecting bracket using a single layer of ribs in the related art are shown. Harmonic response analysis was used to compare the response magnitudes at the location of the connecting structure 206 of the two types of connecting brackets under the same force. The results show that, in most frequency ranges, the amplitude response of the connecting bracket 20 provided by the embodiments of this disclosure is significantly lower than that of the connecting bracket using a single layer of ribs in the related art. This indicates that, compared with the connecting brackets in the related art, the vibration wave attenuates more significantly during its transmission to the location of the connecting structure 206 in the connecting bracket 20 provided by the embodiments of this disclosure.

[0194] Figure 12 The first-order mode of the connection bracket using a single-layer rib in the relevant technology is shown through simulation calculation. Figures 13 to 15 The first three modes of the connecting bracket 20 of some embodiments of this disclosure, obtained through simulation calculations, are shown. In the connecting bracket 20, the first rib group includes the previously mentioned corner rib 2041, vertical rib 2043, diagonal rib 2044, first annular rib 2045, and transverse rib 2046; the second rib group includes the previously mentioned first rib segment 2031, second rib segment 2032, and second annular rib 2033. Figures 12 to 15 It can be seen that the first three modal frequencies of the connecting bracket are 1184.5Hz, 1662.6Hz, and 2572.4Hz, respectively. Compared with the connecting brackets in related technologies, the first modal frequency of the connecting brackets in related technologies is only 292.63Hz. The first modal frequency of the connecting bracket 20 provided in the embodiments of this disclosure is increased by about 304%. It is evident that the connecting bracket 20 provided in the embodiments of this disclosure has a higher modal frequency and higher stiffness, thus effectively improving low-frequency vibration.

[0195] refer to Figures 1 to 23 Some embodiments of this disclosure provide a pump assembly including a pump 30, a drive unit 10, and a connecting bracket 20 provided in embodiments of this disclosure. The drive unit 10 is configured to drive the pump 30. The pump 30 and the drive unit 10 are connected via the connecting bracket 20.

[0196] The pump assembly provided in the embodiments of this disclosure has the advantages of the connecting bracket 20 provided in the embodiments of this disclosure.

[0197] In some embodiments of the pump assembly, the drive unit 10 is mounted on a first mounting base 201, and the pump 30 is mounted on a third mounting base 205, which is configured to be connected to the base of the pump 30.

[0198] Optionally, refer to Figure 1 The drive unit 10 is mounted on the end face of the first mounting base 201 located in the third direction z. The pump 30 has a mounting end face 301 and is mounted on the end face of the third mounting base 205 located in the third direction z via the mounting end face 301. The third direction z is perpendicular to both the first direction y and the second direction x. (Reference) Figure 18 The mounting end face 301 is provided with multiple third connection holes 3011. The pump 30 can be mounted on the third mounting base 205 through threaded connectors, third connection holes 3011 and second connection holes 2051.

[0199] Optionally, the drive device 10 is a motor. In the assembled state, the axial direction of the output shaft of the motor is consistent with the third direction z, and the axial direction of the fluid inlet of the pump 30 is consistent with the third direction z.

[0200] In this embodiment, the drive device 10 is installed on the side of the connecting bracket 20 near the first rib group 204, and the pump 30 is installed on the side of the connecting bracket 20 near the second rib group 203. This installation configuration fully considers that the drive device 10 is typically the main source of vibration in the equipment where the pump assembly is located, the vibration mode of the drive device 10, the structural form of the pump 30 when assembled with the connecting bracket 20 and the drive device 10, and the weight reduction requirements of the connecting bracket 20. (Reference) Figures 5 to 10 Based on the preceding description of the structure of the connecting bracket 20, the structure of the first rib group 204 can be set to be relatively complex, for example, including at least the aforementioned corner rib 2041, vertical rib 2043, diagonal rib 2044, first annular rib 2045, and transverse rib 2046, so as to sufficiently attenuate the vibration transmitted along the third direction z of the connecting bracket 20 generated by the drive device 10. The structure of the second rib group 203 can be set to be relatively simple, for example, including the aforementioned first rib segment 2031, second rib segment 2032, and second annular rib 2033, so as to facilitate the installation of the mounting end face 301 of the pump 30 to the connecting bracket 20 and to connect with the output shaft of the drive device 10 such as the motor, and to adapt to the weight reduction requirements of the connecting bracket 20.

[0201] Optionally, refer to Figure 1 , Figures 20 to 23The pump assembly also includes a flexible joint 40, an inlet pipe assembly 50, a reducing adapter 60, and an outlet pipe assembly 70. The reducing adapter 60 includes a reducing adapter body 602 and third flanges 601 and fourth flanges 603 located at both ends of the reducing adapter body 602. The third flanges 601 and fourth flanges 603 are respectively connected to the fluid inlet 302 of the pump 30 and the flexible joint 40. The flexible joint 40 includes an elastic portion 401 and two fifth flanges 402 located at both ends of the elastic portion 401. The two fifth flanges 402 are respectively connected to the reducing adapter 60 and the inlet pipe assembly 50. The inlet pipe assembly 50 includes a first flange 501, a first inlet pipe body 502, a second inlet pipe body 503, and a first pressure measuring pipe 504. The first flange 501 is connected to the flexible joint 40, and the first pressure measuring pipe 504 is disposed in the second inlet pipe body 503. The outlet pipe assembly 70 includes a second flange 701, a second pressure measuring pipe 702, and an outlet pipe body 703. The second flange 701 is connected to the fluid outlet 303 of the pump 30, and the second pressure measuring pipe 702 is disposed in the outlet pipe body 703.

[0202] refer to Figures 16 to 19 In some embodiments of the pump assembly, the pump 30 includes a pump body 306, a fluid inlet 302, and a fluid outlet 303. The fluid inlet 302 is provided with a third rib group 304, which includes a third annular rib 3041 and a plurality of third extended ribs. The third annular rib 3041 surrounds the outer periphery of the fluid inlet 302, and the plurality of third extended ribs are distributed on the outer periphery of the fluid inlet 302 and extend along the axial direction of the fluid inlet 302. The third annular rib 3041 and the plurality of third extended ribs are arranged intersectingly, and at least one third extended rib is connected to the pump body 306.

[0203] Optionally, the number of third extension ribs is eight or more. Optionally, multiple third extension ribs are evenly distributed at intervals around the outer periphery of the fluid outlet 303.

[0204] refer to Figures 16 to 19 In some embodiments of the pump assembly, the pump 30 includes a pump body 306, a fluid inlet 302, and a fluid outlet 303. The fluid outlet 303 is provided with a fourth rib group 305, which includes a fourth annular rib 3051 and a plurality of fourth extended ribs. The fourth annular rib 3051 surrounds the outer periphery of the fluid outlet 303, and the plurality of fourth extended ribs are distributed on the outer periphery of the fluid outlet 303 and extend along the axial direction of the fluid outlet 303. The fourth annular rib 3051 and the plurality of fourth extended ribs are arranged intersectingly, and at least one fourth extended rib is connected to the pump body 306.

[0205] Optionally, the number of fourth extension ribs is eight or more. Optionally, multiple fourth extension ribs are evenly distributed at intervals around the outer periphery of the fluid outlet 303.

[0206] Optionally, refer to Figure 18 The pump 30 includes a reinforcing rib 307 connected between the fourth rib group 305 and the pump body 306.

[0207] In this embodiment, the third annular rib 3041 and multiple third extended ribs respectively form a cross-shaped vibration damping structure, and the fourth annular rib 3051 and multiple fourth extended ribs respectively form a cross-shaped vibration damping structure. This structure can significantly improve the pressure-bearing capacity of the pump 30. When the hydraulic and motor-excited vibrations inside the pump 30 are transmitted to the fluid inlet 302 or fluid outlet 303, they can be sufficiently attenuated by the cross-shaped vibration damping structure, effectively reducing the vibration output of the pump 30 in both the axial and radial directions of the pump body 306. This helps to reduce the vibration radiation of the pump 30 to the connecting bracket 20, thereby achieving the purpose of reducing the vibration of the entire equipment.

[0208] Based on the arrangement of the third rib group 304 and the fourth rib group 305 in this embodiment, the vibration acceleration level at the flange position of the fluid inlet 302 of the pump 30 is reduced from the original 131dB to 121dB, and the vibration acceleration level at the flange position of the fluid inlet 302 of the pump 30 is reduced from the original 128dB to 120dB. It can be seen that this rib arrangement can significantly reduce vibration.

[0209] In some embodiments of the pump assembly, a9 = a10, where a9 represents the width of the third annular rib 3041 and a10 represents the width of the third extended rib.

[0210] refer to Figures 16 to 19 In some embodiments of the pump assembly, the third extending rib is divided by the third annular rib 3041 into a third rib segment 3042 away from the pump body 306 and a fourth rib segment 3043 close to the pump body 306. The fourth extending rib is divided by the fourth annular rib 3051 into a fifth rib segment 3052 away from the pump body 306 and a sixth rib segment 3053 close to the pump body 306. Wherein, b9≥1 / 3*b8, and / or, a9=a11=a13, and / or, h4=h3, b8 represents the length of the sixth rib segment 3053, b9 represents the length of the fifth rib segment 3052; a9 represents the width of the third annular rib 3041, a11 represents the width of the sixth rib segment 3053, a13 represents the width of the fourth annular rib 3051, h3 represents the height of the third extending rib, and h4 represents the height of the end of the sixth rib segment 3053 connected to the fourth annular rib 3051.

[0211] Figures 16 to 19 In the diagram, b7 represents the length of the third extension rib.

[0212] In this embodiment, by setting a9=a10, it is beneficial to maintain the consistency of the stiffness enhancement and vibration damping effects of the third rib group 304 in different directions of the fluid inlet 302. By setting a9=a11=a13 and h4=h3, it is beneficial to maintain the consistency of the vibration damping effects of the fourth rib group 305 and the third rib group 304. By setting b9≥1 / 3*b8, the stiffness enhancement effect of the fourth annular rib 3051 can more uniformly cover the extension area of ​​the fourth extension rib.

[0213] The dimensional and / or angular relationships adopted in this embodiment can further enhance the vibration damping effect of pump 30.

[0214] Some embodiments of this disclosure provide a refrigeration system, which includes a pump assembly provided in embodiments of this disclosure.

[0215] In the pump assembly, pump 30 can be, for example, a cooling water pump or a chilled water pump for a refrigeration system.

[0216] The refrigeration system provided by the embodiments of this disclosure has the advantages of the pump assembly provided by the embodiments of this disclosure.

[0217] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this disclosure and not to limit them; although this disclosure has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications can still be made to the specific implementation of this disclosure or equivalent substitutions can be made to some technical features, all of which should be covered within the scope of the technical solutions claimed in this disclosure.

Claims

1. A connection bracket, characterized in that include: Support body; and A reinforcing body is formed on one side of the support body. The reinforcing body includes a first rib group (204) and a first mounting base (201). The support body includes a second mounting base (202), a third mounting base (205), and a second rib group (203). The first mounting base (201) is connected to the second mounting base (202) through the first rib group (204). The second mounting base (202) and the third mounting base (205) are connected through the second rib group (203). The first mounting base (201), the second mounting base (202), and the third mounting base (205) are configured to be connected to different components, respectively.

2. The connecting bracket according to claim 1, characterized in that, The first rib group (204) includes a first annular rib (2045) and a plurality of first extending ribs, the plurality of first extending ribs extending between the first annular rib (2045) and the outer edge of the second mounting base (202), at least two of the first extending ribs extending in different directions; and / or The second rib group (203) includes a second annular rib (2033) and a plurality of second extended ribs, the plurality of second extended ribs extending between the second annular rib (2033) and the outer edge of the second mounting base (202), and at least two of the second extended ribs extending in different directions.

3. The connecting bracket according to claim 2, characterized in that, Multiple first extending ribs are arranged divergently; and / or Multiple second extension ribs are arranged in a divergent manner.

4. The connecting bracket according to claim 3, characterized in that, Multiple first extending ribs extend in a straight line; and / or The second mounting base (202) has a connecting structure (206) at its corner. The first rib group (204) includes corner ribs (2041). Each corner of the second mounting base (202) is provided with at least one corner rib (2041). Each corner rib (2041) surrounds the side of the connecting structure (206) near the interior of the second mounting base (202).

5. The connecting bracket according to claim 4, characterized in that The plurality of the first extended stiffeners include: Vertical ribs (2043) extend along the first direction (y) of the second mounting base (202); A transverse rib (2046) extends along a second direction (x) of the second mounting base (202), wherein the second direction (x) is perpendicular to the first direction (y); and The diagonal rib (2044) is arranged at an angle to both the transverse rib (2046) and the vertical rib (2043), and at least one diagonal rib (2044) is provided between adjacent transverse ribs (2046) and vertical ribs (2043).

6. The connecting bracket according to claim 5, characterized in that The oblique rib (2044) extends from the first annular rib (2045) to the corner of the second mounting base (202) and intersects with at least one of the corner ribs (2041).

7. The connecting bracket of claim 4, wherein The corner rib (2041) is arc-shaped.

8. The connecting bracket of claim 5, wherein The first stiffener group (204) satisfies at least one of the following dimensional and / or angular relationships: V1*1 / 5≤R1≤V1*1 / 2, where R1 represents the inner radius of the first annular rib (2045), and V1 represents the dimension of the second mounting base (202) along the first direction (y); a6≤h1, where a6 represents the width of the first annular rib (2045) and h1 represents the height of the first rib group (204); h1≤30mm, where h1 represents the height of the first stiffener group (204); a1=a2, where a1 represents the width of the vertical rib (2043) and a2 represents the width of the horizontal rib (2046); 20mm≤a1≤30mm, where a1 represents the width of the vertical rib (2043); 15mm≤a3≤20mm, where a3 represents the width of the inclined rib (2044); The second mounting base (202) has a plurality of corner ribs (2041) spaced apart at each corner, b3≥2*b4, where b3 represents the length of the diagonal rib (2044) and b4 represents the spacing between two adjacent corner ribs (2041); 30°≤c1≤60°, where c1 represents the angle between the vertical rib (2043) and the diagonal rib (2044); 30°≤c3≤60°, where c3 represents the angle between the transverse stiffener (2046) and the oblique stiffener (2044); a4 = a3, where a4 represents the width of the corner rib (2041) and a3 represents the width of the diagonal rib (2044).

9. The connecting bracket of claim 5, wherein The first set of reinforcing bars (204) includes: The first connecting rib (2048) is connected at both ends to the two corner ribs (2041) and intersects with the vertical rib (2043); and / or The second connecting rib (2049) is connected at both ends to the two corner ribs (2041) and intersects with the transverse rib (2046).

10. The connecting bracket of claim 9, wherein The first connecting rib (2048) is arc-shaped, and / or the second connecting rib (2049) is arc-shaped.

11. The connecting bracket of claim 2, wherein The first rib group (204) includes a plurality of nested first annular ribs (2045).

12. The connecting bracket of claim 2, wherein The second extended rib includes a first rib segment (2031) and a second rib segment (2032). The first rib segment (2031) extends from the outside of the second annular rib (2033) to the outer edge of the second mounting base (202). The second rib segment (2032) is disposed on the outer edge of the second mounting base (202) and extends in the direction of the outer edge of the second mounting base (202).

13. The connecting bracket of claim 12, wherein The second stiffener group (203) satisfies at least one of the following dimensional and / or angular relationships: R2=R1, where R1 represents the inner radius of the first annular rib (2045), and R2 represents the inner radius of the second annular rib (2033); h2 = 2 * h1, where h1 represents the height of the first rib group (204) and h2 represents the height of the second rib group (203); a6 = a8, where a6 represents the width of the first annular rib (2045) and a8 represents the width of the second annular rib (2033); a3=a7, where a3 represents the width of the first extended rib and a7 represents the width of the first rib segment (2031); The second reinforcing bar segment (2032) extends along a second direction (x) perpendicular to the first direction (y), 30°≤c4≤60°, and / or, 120°≤c5≤150°, where c4 represents the angle between the first reinforcing bar segment (2031) and the first direction (y), and c5 represents the angle between two adjacent first reinforcing bar segments (2031) along the first direction (y); a12=a7, where a7 represents the width of the first reinforcing bar segment (2031) and a12 represents the width of the second reinforcing bar segment (2032); At least one of the plurality of first extending ribs has the same extending direction as the second rib segment (2032), b5=b2, where b5 represents the length of the second rib segment (2032), and b2 represents the length of the first extending rib that has the same extending direction as the second rib segment (2032).

14. The connecting bracket according to any one of claims 1 to 13, characterized in that The bracket body and the reinforcing body are integrally formed, and / or the first rib group (204) and the first mounting base (201) are integrally provided, and / or the second mounting base (202), the third mounting base (205) and the second rib group (203) are integrally provided.

15. A pump assembly characterized by, include: Pump (30); The drive unit (10) is configured to drive the pump (30); and According to any one of claims 1 to 14, the pump (30) and the drive device (10) are connected via the connecting bracket (20).

16. The pump assembly of claim 15, wherein, The drive unit (10) is mounted on the first mounting base (201), and the pump (30) is mounted on the third mounting base (205), which is configured to be connected to the base of the pump (30).

17. The pump assembly of claim 15, wherein, The pump (30) includes a pump body (306), a fluid inlet (302), and a fluid outlet (303), wherein, The fluid inlet (302) is provided with a third rib group (304), the third rib group (304) including a third annular rib (3041) and a plurality of third extended ribs. The third annular rib (3041) surrounds the outer periphery of the fluid inlet (302), and the plurality of third extended ribs are distributed on the outer periphery of the fluid inlet (302) and extend along the axial direction of the fluid inlet (302). The third annular rib (3041) and the plurality of third extended ribs are arranged intersectingly, and at least one of the third extended ribs is connected to the pump body (306); and / or The fluid outlet (303) is provided with a fourth rib group (305), which includes a fourth annular rib (3051) and a plurality of fourth extended ribs. The fourth annular rib (3051) surrounds the outer periphery of the fluid outlet (303), and the plurality of fourth extended ribs are distributed on the outer periphery of the fluid outlet (303) and extend along the axial direction of the fluid outlet (303). The fourth annular rib (3051) and the plurality of fourth extended ribs are arranged intersectingly, and at least one of the fourth extended ribs is connected to the pump body (306).

18. The pump assembly according to claim 17, characterized in that, a9 = a10, where a9 represents the width of the third annular rib (3041), and a10 represents the width of the third extending rib; and / or The third extending rib is divided by the third annular rib (3041) into a third rib segment (3042) away from the pump body (306) and a fourth rib segment (3043) close to the pump body (306). The fourth extending rib is divided by the fourth annular rib (3051) into a fifth rib segment (3052) away from the pump body (306) and a sixth rib segment (3053) close to the pump body (306), wherein b9 ≥ 1 / 3 * b8, and / or a9 = a11 = a13. And / or, h4=h3, b8 represents the length of the sixth reinforcing bar segment (3053), b9 represents the length of the fifth reinforcing bar segment (3052); a9 represents the width of the third annular reinforcing bar (3041), a11 represents the width of the sixth reinforcing bar segment (3053), a13 represents the width of the fourth annular reinforcing bar (3051), h3 represents the height of the third extending reinforcing bar, and h4 represents the height of the end of the sixth reinforcing bar segment (3053) connected to the fourth annular reinforcing bar (3051).

19. A refrigeration system characterized by, Includes the pump assembly according to any one of claims 15 to 18.

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