Dispensing mounting base and manufacturing method thereof

Abstract

The invention belongs to the technical field of dispensing machine accessories, and particularly relates to a dispensing mounting base and a manufacturing method thereof. The defects of unreasonable design and the like in the prior art are overcome. The dispensing mounting base comprises a shell with a containing cavity and a metal heat conduction piece, at least part of the metal heat conduction piece is fixed to the shell, the metal heat conduction piece is provided with a first heat conduction part and a second heat conduction part, and the first heat conduction part and the second heat conduction part are inserted into the containing cavity. And first heat insulation spaces are reserved between the first heat conduction part and the cavity wall of the containing cavity as well as between the second heat conduction part and the cavity wall of the containing cavity respectively, so that the adhesive dispensing parts inserted into the first heat conduction part and the second heat conduction part respectively are in a suspended state in the containing cavity. The solar water heater has the advantages that the contact area of the shell and the metal heat conduction piece is greatly reduced, heat transfer is hindered, meanwhile, cavities are designed between the metal heat conduction piece and the shell and in the shell, the effects that the plastic surface temperature is not too low, condensation and freezing are avoided are achieved, and freezing is avoided.

Description

Technical Field

[0001] The invention belongs to the technical field of glue dispensing machine accessories, and in particular relates to a glue dispensing installation base and a manufacturing method thereof. Background Art

[0002] Mixing AB glue will release heat, causing the temperature to rise. The temperature rise promotes the solidification of glue, causing the glue to clog the hose and affect the extrusion of glue. Therefore, the automatic dispensing machine mixing tube is usually designed with a refrigeration module to cool the mixing tube, increase the life of the automatic dispensing machine hose, and stabilize the product dispensing quality. Usually the mixing tube can work continuously for 12 hours.

[0003] The traditional dispensing installation base is composed of copper heat-conducting components, plastic shell, sponge jacket, water tank, and semiconductor cooling sheet. After the semiconductor cooling sheet is powered on, one end cools and the other end heats up. The heating end is connected to water cooling. The cooling end is close to the copper heat-conducting component. The mixing tube is installed between the copper sheets to achieve the effect of cooling the glue mixing tube.

[0004] The working temperature of the dispensing mixing tube is required to be -5℃~-2℃. While the semiconductor chip cools the copper heat-conducting component, the temperature of the plastic shell also drops significantly due to heat transfer. When the shell temperature is lower than the dew point temperature, the water vapor in the air will form condensed water on the surface of the dispensing base. When the surface is lower than 0 degrees, the condensed water begins to freeze. As time goes by, the ice cubes accumulate and become larger, freezing the mixing tube and the base together. The shell cannot be easily opened and closed, and the time-consuming replacement of the mixing tube increases. At the same time, the condensed water and ice cubes will have an adverse effect on the quality of the dispensing product, which urgently needs to be improved.

[0005] Another problem is that, in order to meet the requirements of precise assembly, the existing technology usually uses CNC machine tools to process the copper components of the glue installation base and the plastic shell, which has low material utilization and high cost. The plastic shell is an open and closed split structure, which is fastened by screws in many places and is relatively complicated. Summary of the invention

[0006] The first objective of the present invention is to provide a dispensing installation base that can solve the above-mentioned technical problem of condensed water freezing in response to the above-mentioned problem.

[0007] The second object of the present invention is to provide a method for manufacturing a glue dispensing mounting base that can solve the technical problem of high manufacturing cost of the glue dispensing mounting base in view of the above-mentioned problem.

[0008] In order to solve the above-mentioned first technical problem, the present invention adopts the following technical solutions:

[0009] The glue dispensing installation base includes a shell having a accommodating cavity, and a metal heat-conducting part that is at least partially fixed to the shell and has a first heat-conducting part and a second heat-conducting part. The first heat-conducting part and the second heat-conducting part are respectively inserted into the accommodating cavity, and the first heat-conducting part and the second heat-conducting part respectively reserve a first heat-insulating space with the cavity wall of the accommodating cavity, so that the glue dispensing components respectively inserted into the first heat-conducting part and the second heat-conducting part are in a suspended state in the accommodating cavity.

[0010] In the above-mentioned glue dispensing installation base, the metal heat conductive member and the cavity wall of the accommodating cavity reserve a second heat insulating space, and the second heat insulating space connects the two first heat insulating spaces.

[0011] In the above-mentioned glue dispensing installation base, the metal heat conductive member is in a block shape, and the metal heat conductive member is fixed to the cavity wall of the accommodating cavity through a spacing support structure to form the second heat insulating space.

[0012] In the above-mentioned dispensing installation base, the spacing support structure includes a plurality of support columns and a plurality of positioning holes that match the support columns one by one. Any one of the support columns and the positioning holes is arranged on the metal heat conductor, and the remaining one is arranged on the cavity wall of the accommodating cavity, and the axial length of the support column is greater than the hole depth of the positioning hole.

[0013] In the above-mentioned glue dispensing installation base, the shell is made of non-metallic material, and the thermal conductivity of the shell is lower than the thermal conductivity of the metal thermal conductive part.

[0014] In the above-mentioned dispensing installation base, the metal heat conductor, the first heat conducting part and the second heat conducting part are integrally formed by 3D printing of metal materials through the SML process, and the axis line of the first heat conducting part and the axis line of the second heat conducting part are distributed at an angle.

[0015] In the above-mentioned glue dispensing installation base, the accommodating cavity includes a heat conductive component accommodating sub-chamber with an opening and two heat conductive part accommodating sub-chambers, one of the heat conductive part accommodating sub-chambers is inclined and connected to the side of the heat conductive component accommodating sub-chamber away from the opening, and the top opening of the other heat conductive component accommodating sub-chamber is connected to the bottom side of the heat conductive component accommodating sub-chamber, the heat conductive component accommodating sub-chamber and the heat conductive part accommodating sub-chamber are connected to each other, at least part of the metal heat conductive component is fixed to the cavity wall of the heat conductive component accommodating sub-chamber, the first heat conductive part is inserted into one of the heat conductive part accommodating sub-chambers, and the second heat conductive part is inserted into the other heat conductive part accommodating sub-chamber.

[0016] In the above-mentioned dispensing installation base, the shell is integrally formed by 3D printing of plastic material through FDM process, and the shell includes a main body having the heat-conducting part accommodating sub-chamber, and an inclined part having the heat-conducting part accommodating sub-chamber arranged obliquely and connected to the main body, and through holes are respectively provided at the upper end and the lower end of the inclined part, and the shell also includes a bottom side part having another heat-conducting part accommodating sub-chamber and connected to the bottom side of the main body, and an avoidance hole is provided at the bottom of the bottom side part, and a discharge hole is provided at the bottom side of the side wall of the bottom side part.

[0017] In the above-mentioned glue dispensing installation base, insulation plates are respectively provided on at least part of the outer surface of the main body, at least part of the outer surface of the inclined part and at least part of the outer surface of the bottom side part, and at least part of the insulation plate provided on the main body, at least part of the insulation plate provided on the inclined part and at least part of the insulation plate provided on the bottom side are interconnected to form an insulation outer layer that at least partially imitates the outer shell.

[0018] To solve the second technical problem mentioned above, the present application also provides a method for manufacturing a dispensing mounting base, comprising the following steps:

[0019] S1. 3D printing a metal material using an SML process to obtain a metal heat conducting member having a first heat conducting portion and a second heat conducting portion; and

[0020] The plastic material is 3D printed using the FDM process to obtain a shell that accommodates the cavity;

[0021] S2. Fix the shell and the metal heat conductive part obtained in S1 so that the first heat conductive part and the second heat conductive part are respectively inserted into the accommodating cavity, and the first heat conductive part and the second heat conductive part respectively reserve a first heat insulating space with the cavity wall of the accommodating cavity, and the metal heat conductive part and the cavity wall of the accommodating cavity reserve a second heat insulating space, and the second heat insulating space connects the two first heat insulating spaces, so as to manufacture the glue dispensing installation base.

[0022] Compared with the existing technology, the advantages of this application are:

[0023] The contact area between the shell and the metal heat conductor is greatly reduced, which hinders heat transfer. At the same time, cavities are designed between the metal heat conductor and the shell and inside the shell. Air is a poor conductor of heat, which can form a temperature difference between the metal heat conductor and the shell, so that the plastic surface temperature is not too low and there is no condensation and ice. There is no ice, and the mixing tube can be replaced conveniently.

[0024] Designed according to the characteristics of 3D printing technology, it is printed in one piece, which reduces assembly, improves material utilization and effectively reduces costs.

[0025] Compared with the traditional CNC machined metal + plastic dispensing base, this model is lightweight and beautiful in appearance. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] Figure 1 It is a schematic diagram of the three-dimensional structure of the glue dispensing installation base provided by the present invention.

[0027] Figure 2 It is a schematic diagram of the back structure of the glue dispensing installation base provided by the present invention.

[0028] Figure 3 yes Figure 2 Schematic diagram of the cross-sectional structure along line AA.

[0029] Figure 4 yes Figure 2 Schematic diagram of the cross-sectional structure along the middle DD line.

[0030] Figure 5 It is a schematic diagram of the three-dimensional structure of the metal heat conductor provided by the present invention.

[0031] Figure 6 It is a schematic diagram of the structure of the metal heat conductor provided by the present invention.

[0032] Figure 7 It is a schematic diagram of the three-dimensional structure of the shell provided by the present invention.

[0033] Figure 8 It is a schematic diagram of the structure of the housing provided by the present invention when viewed from above.

[0034] Fig. 9 yes Figure 8 Schematic diagram of the cross-section structure along line BB.

[0035] Fig.10 yes Figure 8 Schematic diagram of the cross-sectional structure along the middle CC line.

[0036] Fig.11 It is a structural schematic diagram of embodiment 3 provided by the present invention.

[0037] In the figure, the shell 1, the main body 10, the inclined part 11, the through hole 110, the bottom side 12, the avoidance hole 120, the discharge hole 121, the insulation board 13, the metal heat conductive part 2, the first heat conductive part 20, the mixing hose insertion hole 200, the second heat conductive part 21, the dispensing needle insertion hole 210, the spacing support structure 22, the support column 220, the positioning hole 221, the limit column 23, the through hole 24, the accommodating cavity K, the heat conductive part accommodating sub-chamber K1, the heat conductive part accommodating sub-chamber K2, the first heat insulating space L1, the second heat insulating space L2, and the angle a. DETAILED DESCRIPTION

[0038] The following are specific embodiments of the invention and the accompanying drawings to further describe the technical solution of the present invention, but the present invention is not limited to these embodiments.

[0039] Embodiment 1

[0040] like Figure 1 and Figure 2 As shown, the dispensing mounting base includes a shell 1 and a metal heat conductor 2 built into the shell 1. The shell 1 and the metal heat conductor 2 are integrally formed by 3D printing to improve efficiency and reduce material costs. The metal heat conductor 2 directly contacts the dispensing components and fixes the dispensing components, such as a mixing hose and a dispensing needle.

[0041] Specifically, Figure 3-Figure 7 As shown, the housing 1 of this embodiment has a cavity K for accommodating a metal heat-conducting part 2, and the metal heat-conducting part 2 has a first heat-conducting part 20 and a second heat-conducting part 21; the metal heat-conducting part 2, the first heat-conducting part 20 and the second heat-conducting part 21 are made of the same material, and the three are integrally formed by 3D printing of metal materials through the SML process (selective laser melting) to form a heat-conducting component; the metal is, for example, aluminum alloy. The first heat-conducting part 20 has an axial mixing hose insertion hole 200, and the second heat-conducting part 21 has an axial dispensing needle insertion hole 210 to accommodate the insertion of the mixing hose and the dispensing needle. At the same time, the axis of the mixing hose insertion hole of the first heat-conducting part 20 and the axis of the dispensing needle insertion hole of the second heat-conducting part 21 are distributed at an angle a. Angle a is an acute angle.

[0042] Secondly, the first heat conducting part 20 and the second heat conducting part 21 are respectively inserted into the accommodating cavity K. At this time, the shell 1 can protect the dispensing component and also form heat preservation. In order to improve the heat preservation performance, the first heat conducting part 20 and the second heat conducting part 21 of this embodiment respectively reserve the first heat insulating space L1 with the cavity wall of the accommodating cavity K, and the two first heat insulating spaces L1 are interconnected. That is, the outer contour surface of the first heat conducting part 20 does not contact the cavity wall of the accommodating cavity K, and the outer contour surface of the second heat conducting part 21 does not contact the cavity wall of the accommodating cavity K. The first heat insulating space L1 formed has air, which is a poor conductor of heat, and can form a temperature difference between the metal heat conducting part 2 (i.e., the heat conducting component) and the shell 1, so as to achieve the effect that the surface temperature of the shell 1 is not too low and does not condense and freeze.

[0043] Through the above-mentioned design of the heat-insulating space L1, the dispensing components respectively inserted into the first heat-conducting part 20 and the second heat-conducting part 21 can be suspended in the accommodating cavity K, avoiding direct contact of heat and rapid heat exchange to prevent condensed water from freezing.

[0044] The spacing size of the first heat-insulating space L1 can be adaptively designed according to the dispensing components of different sizes.

[0045] In addition, the cross section of the first heat conducting part 20 is dumbbell-shaped, and at least one through hole 24 is provided in the middle of the cross section of the first heat conducting part 20, and the axis of the through hole 24 is parallel to the axis of the mixing hose insertion hole. The second heat conducting part 21 is connected to the metal heat conducting member 2 through a bending part, and reinforcing ribs can be provided at the bending part to achieve structural reinforcement at the bending part.

[0046] In order to achieve the interconnection of the two first thermal insulation spaces L1, the metal thermal conductor 2 and the cavity wall of the accommodating cavity K reserve a second thermal insulation space L2, that is, the metal thermal conductor 2 and the accommodating cavity K are set in a spaced state, and the second thermal insulation space L2 connects the two first thermal insulation spaces L1, so that the heat dissipated can flow in the second thermal insulation space L2 and the two first thermal insulation spaces L1, forming an effect of relatively uniform heat dissipation.

[0047] To achieve the interval setting state, such as Figure 3-Figure 10 As shown, the metal heat conductive member 2 of this embodiment is block-shaped, and the metal heat conductive member 2 is fixed to the cavity wall of the accommodating cavity K through the spacing support structure 22 to form the second heat insulating space L2. The spacing support structure 22 is a concave-convex matching structure, for example, the spacing support structure 22 includes a plurality of support columns 220 and a plurality of positioning holes 221 that match the support columns 220 one by one, and the positioning holes 221 are blind holes. Any one of the support columns 220 and the positioning holes 221 is provided on the metal heat conductive member 2, and the remaining one is provided on the cavity wall of the accommodating cavity K, and the axial length of the support column 220 is greater than the hole depth of the positioning hole 221.

[0048] Specifically, Figure 5-Figure 6 As shown, a plurality of support columns 220 are provided on the metal heat conductive member 2, and a plurality of positioning holes 221 are provided on the cavity wall of the cavity K. At this time, part of the support columns 220 are inserted into the positioning holes 221, so that the metal heat conductive member 2 can be separated from the cavity wall of the cavity K, and the support columns 220 and the first heat conductive part 20 are located on the same surface of the metal heat conductive member 2. Of course, as another embodiment, the positions of the support columns 220 and the positioning holes 221 can be interchanged. Alternatively, part of the support columns 220 can be set on the metal heat conductive member 2, the remaining support columns 220 can be set on the cavity wall of the cavity K, part of the positioning holes 221 can be set on the metal heat conductive member 2, and the remaining positioning holes 221 can be set on the cavity wall of the cavity K, which can also meet the requirements of the interval setting state.

[0049] The design of the spacing support structure 22 can greatly reduce the connection points between the metal heat conductor 2 and the housing 1, thereby reducing the heat exchange area and achieving the purpose of low heat exchange efficiency.

[0050] As a preferred solution of this embodiment, there are three support columns 220 in this embodiment and they are distributed in a triangular pattern, and there are also three positioning holes 221 and they are also distributed in a triangular pattern. From the distribution perspective, this method can form a very stable fixing effect, so that the metal heat conductor 2 can be stably fixed to the cavity wall of the cavity K. Of course, more than three support columns 220 can also be provided, and for example, two support columns 220 can also be provided, which will not be further described here.

[0051] Secondly, a limiting column 23 is also provided between the metal heat conductive part 2 and the cavity wall of the cavity K. The limiting column 23 is provided on the cavity wall of the cavity K or the metal heat conductive part 2. The length of the limiting column 23 is shorter than the length of the support column 220. It can also be understood that the length of the limiting column 23 is equal to the spacing of the second heat insulating space L2. The limiting column 23 is preferably provided on the cavity wall of the cavity K, and the limiting column 23 abuts against the metal heat conductive part 2 to increase the strength of the metal heat conductive part 2. The reason why the limiting column 23 is provided on the cavity wall of the cavity K is that because the housing 1 is made of non-metallic material, such as plastic, the thermal conductivity of the housing 1 is lower than the thermal conductivity of the metal heat conductive part 2.

[0052] Specifically, Figure 3 , Figure 4 , Figure 7 , Fig. 9 and Fig.10 As shown, the accommodating cavity K of this embodiment includes a heat conductive component accommodating sub-chamber K1 with an opening and two heat conductive part accommodating sub-chambers K2, the opening is arranged on the back side of the shell 1, one heat conductive part accommodating sub-chamber K2 is inclined and connected to the side of the heat conductive component accommodating sub-chamber K1 away from the opening, and the top opening of the other heat conductive component accommodating sub-chamber K1 is connected to the bottom side of the heat conductive component accommodating sub-chamber K1, the heat conductive component accommodating sub-chamber K1 is connected to the two heat conductive part accommodating sub-chambers K2 respectively, at least part of the metal heat conductive component 2 is fixed to the cavity wall of the heat conductive component accommodating sub-chamber K1 by the above-mentioned spacing support structure 22, the first heat conductive part 20 is inserted into one of the heat conductive part accommodating sub-chambers K2, and the second heat conductive part 21 is inserted into the other heat conductive part accommodating sub-chamber K2 to form a first thermal insulation space L1.

[0053] Secondly, the shell 1 is integrally formed by 3D printing of plastic material through FDM (fused deposition modeling) process, and the shell 1 includes a main body 10 having a heat-conducting part accommodating sub-chamber K1, and an inclined portion 11 having the heat-conducting part accommodating sub-chamber K2 arranged at an angle and connected to the main body 10, and through holes 110 are respectively provided at the upper and lower ends of the inclined portion 11, and the through holes are used for disassembly, assembly and exit of the mixing hose, and the through hole 110 on the lower side and the top opening are connected to facilitate the lower end of the mixing hose to extend to the upper orifice of the dispensing needle insertion hole, and the shell 1 also includes a bottom side portion 12 having another heat-conducting part accommodating sub-chamber K2 and connected to the bottom side of the main body 10, and an avoidance hole 120 is provided at the bottom of the bottom side portion 12, and the avoidance hole 120 is used for disassembly, assembly and exit of the dispensing needle. A discharge hole 121 is provided on the bottom side of the side wall of the bottom side portion 12, and the discharge hole 121 is used to discharge condensed water. At the same time, a drainage groove connected to the discharge hole 121 is provided on the inner bottom of the bottom side portion 12. The condensed water discharged from the discharge hole is discharged by an external pipeline or the like.

[0054] It should be noted that the heat conducting part accommodating sub-chamber K2 of the inclined portion 11 is connected to the heat conducting part accommodating sub-chamber K1 through a through opening, while the heat conducting part accommodating sub-chamber K2 of the bottom side portion 12 is connected to the bottom side of the heat conducting part accommodating sub-chamber K1 through a top opening.

[0055] Embodiment 2

[0056] like Figure 7-10 As shown, at least a portion of the outer surface of the main body 10, at least a portion of the outer surface of the inclined portion 11, and at least a portion of the outer surface of the bottom side portion 12 are provided with insulation boards 13, respectively. At least a portion of the insulation boards 13 provided on the main body 10, at least a portion of the insulation boards 13 provided on the inclined portion 11, and at least a portion of the insulation boards 13 provided on the bottom side portion 12 are connected to each other to form an insulation outer layer that is at least partially shaped like the outer surface of the shell 1. The insulation outer layer also uses 3D printing technology to improve efficiency and reduce material costs. The design of the insulation outer layer can further improve the structural strength of the shell 1, extend its service life, and at the same time, play a better insulation role.

[0057] Embodiment 3

[0058] like Fig.11 As shown, based on the first embodiment, a concave-convex heat exchange structure is provided on the outer wall of the housing 1. The concave-convex heat exchange structure is, for example, a fin 14, and of course, it can also be a concave-convex curved surface structure. Directly formed by 3D printing.

[0059] Embodiment 4

[0060] Based on the first embodiment, a conformal water channel (not shown in the figure) can be designed on the outer surface of the housing 1, and the advantages of the inner flow channel formed by 3D printing can be directly printed and formed. The water cooling device of the shared semiconductor chip can maintain a high temperature on the surface of the housing 1 under the circulation of the constant temperature water cooler, thereby avoiding the formation of condensed water and ice on the surface.

[0061] Embodiment 5

[0062] Based on Example 1, Figure 1-Figure 10 As shown, this embodiment provides a method for manufacturing a glue-dispensing mounting base, which includes the following steps:

[0063] S1, 3D printing a metal material using SML to obtain a metal heat conducting member 2 having a first heat conducting portion 20 and a second heat conducting portion 21; and

[0064] The plastic material is 3D printed by FDM to obtain a shell 1 accommodating the cavity K;

[0065] S2. Fix the shell 1 and the metal heat conductive part 2 obtained in S1 so that the first heat conductive part 20 and the second heat conductive part 21 are respectively inserted into the accommodating cavity K, and the first heat conductive part 20 and the second heat conductive part 21 respectively reserve a first heat insulating space L1 with the cavity wall of the accommodating cavity K, and the metal heat conductive part 2 and the cavity wall of the accommodating cavity K reserve a second heat insulating space L2, and the second heat insulating space L2 connects the two first heat insulating spaces L1, so as to manufacture the glue dispensing installation base.

[0066] The specific embodiments described herein are merely examples of the spirit of the present invention. Those skilled in the art may make various modifications or additions to the specific embodiments described or replace them in similar ways, but they will not deviate from the spirit of the present invention or exceed the scope defined by the appended claims.

Claims

1. A dispensing mounting base, comprising a housing (1) having a receiving cavity (K), characterized in that: The glue dispensing installation base also includes a metal heat conducting part (2) which is at least partially fixed to the shell (1) and has a first heat conducting part (20) and a second heat conducting part (21); the first heat conducting part (20) and the second heat conducting part (21) are respectively inserted into the accommodating cavity (K), and a first heat insulating space (L1) is reserved between the first heat conducting part (20) and the second heat conducting part (21) and the cavity wall of the accommodating cavity (K), so that the glue dispensing parts respectively inserted into the first heat conducting part (20) and the second heat conducting part (21) are in a suspended state in the accommodating cavity (K).

2. The dispensing mounting base according to claim 1, characterized in that: The metal heat conducting member (2) and the cavity wall of the accommodating cavity (K) reserve a second heat insulating space (L2), and the second heat insulating space (L2) connects the two first heat insulating spaces (L1).

3. The dispensing mounting base according to claim 2, characterized in that: The metal heat conductive member (2) is in a block shape and is fixed to the cavity wall of the accommodating cavity (K) via a spacing support structure (22) to form the second heat insulating space (L2).

4. The dispensing mounting base according to claim 3, characterized in that: The spacing support structure (22) comprises a plurality of support columns (220) and a plurality of positioning holes (221) matched one by one with the support columns (220); any one of the support columns (220) and the positioning holes (221) is arranged on the metal heat conductor (2), and the remaining one is arranged on the cavity wall of the accommodating cavity (K); and the axial length of the support column (220) is greater than the hole depth of the positioning hole (221).

5. The dispensing mounting base according to any one of claims 1 to 4, characterized in that: The outer shell (1) is made of a non-metallic material, and the thermal conductivity of the outer shell (1) is lower than the thermal conductivity of the metal heat-conducting member (2).

6. The dispensing mounting base according to any one of claims 1 to 4, characterized in that: The metal heat conducting member (2), the first heat conducting portion (20) and the second heat conducting portion (21) are integrally formed by 3D printing of metal materials using the SML process, and the housing (1) is integrally formed by 3D printing of plastic materials using the FDM process.

7. The dispensing mounting base according to any one of claims 1 to 4, characterized in that: The accommodating cavity (K) comprises a heat-conducting component accommodating sub-chamber (K1) with an opening and two heat-conducting part accommodating sub-chambers (K2); one of the heat-conducting part accommodating sub-chambers (K2) is arranged at an angle and is connected to a side of the heat-conducting component accommodating sub-chamber (K1) away from the opening; and the top opening of the other heat-conducting component accommodating sub-chamber (K1) is connected to the bottom side of the heat-conducting component accommodating sub-chamber (K1); the heat-conducting component accommodating sub-chamber (K1) and the heat-conducting part accommodating sub-chamber (K2) are connected to each other; at least a portion of the metal heat-conducting component (2) is fixed to the cavity wall of the heat-conducting component accommodating sub-chamber (K1); the first heat-conducting part (20) is inserted into one of the heat-conducting part accommodating sub-chambers (K2); and the second heat-conducting part (21) is inserted into the other heat-conducting part accommodating sub-chamber (K2).

8. The dispensing mounting base according to claim 7, characterized in that: The housing (1) comprises a main body (10) having the heat-conducting component accommodating sub-chamber (K1), and an inclined portion (11) having the heat-conducting component accommodating sub-chamber (K2) arranged in an inclined manner and connected to the main body (10), through holes (110) are respectively provided at the upper end and the lower end of the inclined portion (11), and the housing (1) further comprises a bottom side portion (12) having another heat-conducting component accommodating sub-chamber (K2) and connected to the bottom side of the main body (10), a avoidance hole (120) is provided at the bottom of the bottom side portion (12), and a discharge hole (121) is provided at the bottom side of the side wall of the bottom side portion (12).

9. The dispensing mounting base according to claim 8, characterized in that: A heat-insulating plate (13) is provided on at least part of the outer surface of the main body (10), on at least part of the outer surface of the inclined portion (11), and on at least part of the outer surface of the bottom side portion (12), respectively; at least part of the heat-insulating plate (13) provided on the main body (10), at least part of the heat-insulating plate (13) provided on the inclined portion (11), and at least part of the heat-insulating plate (13) provided on the bottom side portion (12) are connected to each other to form a heat-insulating outer layer that is at least partially shaped like the outer shell (1).

10. The method for manufacturing a dispensing mounting base according to any one of claims 1 to 9, characterized in that: The manufacturing method comprises the following steps: S1, using SML to perform 3D printing on a metal material to obtain a metal heat conducting member (2) having a first heat conducting portion (20) and a second heat conducting portion (21); and Using FDM to perform 3D printing on the plastic material to obtain a shell (1) containing the cavity (K); S2. Fix the shell (1) and the metal heat conductive part (2) obtained in S1 so that the first heat conductive part (20) and the second heat conductive part (21) are respectively inserted into the accommodating cavity (K), and the first heat conductive part (20) and the second heat conductive part (21) respectively reserve a first heat insulating space (L1) with the cavity wall of the accommodating cavity (K), and the metal heat conductive part (2) and the cavity wall of the accommodating cavity (K) reserve a second heat insulating space (L2), and the second heat insulating space (L2) connects the two first heat insulating spaces (L1), so as to manufacture the glue dispensing installation base.

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