Inductive powder filling and demolding integrated machine

Abstract

The application discloses an inductance powder filling and demolding integrated machine, which comprises a double-layer conveying assembly, a powder filling mechanism, a demolding mechanism, a first transferring mechanism and a second transferring mechanism. The powder filling mechanism and the demolding mechanism are located at the same side of the double-layer conveying assembly. The double-layer conveying assembly comprises an upper layer belt conveyor and a lower layer belt conveyor which are arranged side by side. The conveying directions of the upper layer belt conveyor and the lower layer belt conveyor are opposite. The first transferring mechanism is used for realizing the back-and-forth movement of a mold between the upper layer belt conveyor and the powder filling mechanism. The second transferring mechanism is used for realizing the back-and-forth movement of the mold between the lower layer belt conveyor and the demolding mechanism. The inductance powder filling and demolding integrated machine can realize the integration and coordination of powder filling and demolding, has the advantage of small occupied space, and can be reasonably connected with a core filling and hot pressing process.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of inductor intelligent manufacturing, and particularly relates to an inductor powder filling and demolding integrated machine. BACKGROUND

[0002] The key to supporting the rapid development of artificial intelligence technology lies in the large-scale production application of AI servers with high-performance computing capabilities and large-capacity storage spaces. With the substantial growth in demand for AI servers, the demand for inductors, as key components in AI servers, has also increased substantially.

[0003] The manufacturing process of inductors includes four processes of core filling, powder filling, hot pressing and demolding. Traditionally, the four processes are completed independently by four devices, and conveying mechanisms are configured between these devices to realize the transfer of molds, resulting in a large occupied area of the entire production line. Currently, there are few devices that integrate powder filling and demolding processes, because powder filling and demolding are not adjacent processes, and such integrated devices also need to fully consider how to interface with the core filling and hot pressing processes. Therefore, how to design a powder filling and demolding integrated machine that occupies a small space and can be reasonably interfaced with the core filling and hot pressing processes has become a technical problem difficult to overcome in the field of inductor intelligent manufacturing. SUMMARY

[0004] In order to overcome the shortcomings of the prior art, the purpose of the present application is to provide an inductor powder filling and demolding integrated machine, which can realize the integration and coordination of powder filling and demolding, has the advantage of small occupied space, and can be reasonably interfaced with the core filling and hot pressing processes.

[0005] The purpose of the present application is achieved by adopting the following technical solutions:

[0006] An inductor powder filling and demolding integrated machine includes a double-layer conveying assembly, a powder filling mechanism, a demolding mechanism, a first transfer mechanism and a second transfer mechanism. The powder filling mechanism and the demolding mechanism are on the same side of the double-layer conveying assembly. The double-layer conveying assembly includes an upper layer belt conveyor and a lower layer belt conveyor arranged side by side. The conveying directions of the upper layer belt conveyor and the lower layer belt conveyor are opposite. The first transfer mechanism is used to realize the back-and-forth movement of the mold between the upper layer belt conveyor and the powder filling mechanism. The second transfer mechanism is used to realize the back-and-forth movement of the mold between the lower layer belt conveyor and the demolding mechanism.

[0007] Further, the first transfer mechanism includes a first linear module, a first down pressure cylinder and a first push block. The first linear module is transversely perpendicular to the upper layer belt conveyor. The first down pressure cylinder is installed on the slider of the first linear module, and the first down pressure cylinder is connected with the first push block to realize the up-and-down movement of the first push block.

[0008] The second transfer mechanism comprises a second linear module, a second pressing cylinder and a second push block. The second linear module is transversely perpendicular to the lower belt conveyor. The second pressing cylinder is installed on the slider of the second linear module, and the second pressing cylinder is connected with the second push block to realize the up-down movement of the second push block.

[0009] Further, the upper belt conveyor is provided with an upper opening on the side facing the powder filling mechanism, and the lower belt conveyor is provided with a lower opening on the side facing the demolding mechanism.

[0010] Further, the upper belt conveyor is provided with two upper stop blocks, each of which is connected with an upper cylinder to realize up-down movement. The upper opening is between the two upper stop blocks, and the front upper stop block is used to block the mold at a position corresponding to the upper opening.

[0011] The lower belt conveyor is provided with two lower stop blocks, each of which is connected with a lower cylinder to realize up-down movement. The lower opening is between the two lower stop blocks, and the front lower stop block is used to block the mold at a position corresponding to the lower opening.

[0012] Further, the inductive powder filling and demolding integrated machine further comprises a visual detection mechanism between the upper belt conveyor and the powder filling mechanism and an upper slide. The upper slide is transversely perpendicular to the upper belt conveyor, and the visual detection mechanism is used for visual detection of the mold on the upper slide.

[0013] Further, the inductive powder filling and demolding integrated machine further comprises a lifting platform, a lifting cylinder and a third transfer mechanism. The lifting platform is between the upper slide and the upper belt conveyor. The lifting cylinder is connected with the lifting platform to enable the lifting platform to rise to the upper station or descend to the lower station. The upper slide is connected with the powder filling mechanism. When the lifting platform is at the upper station, the lifting platform realizes the connection between the upper slide and the upper belt conveyor. The third transfer mechanism is used to transfer the mold on the lifting platform to the demolding mechanism and the lower belt conveyor when the lifting platform is at the lower station.

[0014] Further, the inductive powder filling and demolding integrated machine further comprises a lower slide parallel to the lower belt conveyor. The lower slide is between the third transfer mechanism and the lower belt conveyor. The demolding mechanism is provided with a first opening connected with the lower belt conveyor and a second opening connected with the lower slide. When the lifting platform is at the lower station, the lifting platform is connected with the lower slide.

[0015] Further, the demolding mechanism comprises a demolding needle assembly, a demolding station, a material collecting assembly, a horizontal moving mold group and a pre-demolding separating assembly, the pre-demolding separating assembly is used for separating the middle mold plate and the middle mold slider in cooperation with the second moving mechanism, the demolding needle assembly is above the demolding station, and the material collecting assembly is below the demolding station, the material collecting assembly comprises an OK product collecting box and an NG product collecting box, and the OK product collecting box and the NG product collecting box are installed side by side on the slider of the horizontal moving mold group.

[0016] Further, the third moving mechanism comprises a third linear mold group, a rotating cylinder, a rotating rod and a third push block, the third linear mold group is parallel to the lower belt conveyor, the rotating cylinder is installed on the slider of the third linear mold group, the output end of the rotating cylinder is connected with the rotating rod, and the third push block is installed on the rotating rod.

[0017] Further, the powder filling mechanism comprises a powder feeding assembly, a powder filling station and an upper pressing cylinder, the upper pressing cylinder is below the powder filling station and the output end of the upper pressing cylinder is connected with the powder filling station, and the powder feeding assembly is above the powder filling station.

[0018] Compared with the prior art, the beneficial effects of the present application are that:

[0019] The upper belt conveyor of the inductance powder filling and demolding all-in-one machine is used for abutting against a core filling machine and a hot press machine respectively, the lower belt conveyor is also used for abutting against the core filling machine and the hot press machine respectively, but the conveying directions of the upper belt conveyor and the lower belt conveyor are opposite; the mold coming out of the core filling machine reaches the powder filling mechanism to perform a powder filling process through the upper belt conveyor and the first moving mechanism in sequence, then the mold is conveyed to the hot press machine to perform a hot pressing process through the first moving mechanism and the upper belt conveyor in sequence; the mold coming out of the hot press machine reaches the demolding mechanism to perform a demolding process through the lower belt conveyor and the second moving mechanism in sequence, then the mold (namely, the empty mold) flows back to the core filling machine to perform a core filling process through the second moving mechanism and the lower belt conveyor in sequence.

[0020] As known from the above, the inductance powder filling and demolding all-in-one machine can realize the integration and coordination of powder filling and demolding, has the advantage of small space occupation, and can be reasonably abutted against the core filling and hot pressing processes. BRIEF DESCRIPTION OF DRAWINGS

[0021] Figure 1 FIG. 1 is a structural schematic diagram of an inductance powder filling and demolding all-in-one machine according to an embodiment of the present application;

[0022] Figure 2 FIG. 2 is a top view of the inductance powder filling and demolding all-in-one machine according to the embodiment of the present application;

[0023] Figure 3Structure schematic view of the inductance powder filling and mold stripping integrated machine of the embodiment of the present application omitting the double-layer conveying assembly, the first transferring mechanism and the second transferring mechanism;

[0024] Figure 4 Structure schematic view of the inductance powder filling and mold stripping integrated machine of the embodiment of the present application omitting the double-layer conveying assembly, the first transferring mechanism, the second transferring mechanism and the visual detection mechanism;

[0025] Figure 5 Structure schematic view of the double-layer conveying assembly of the embodiment of the present application;

[0026] Figure 6 Structure schematic view of the double-layer conveying assembly of the embodiment of the present application from another perspective;

[0027] Figure 7 Structure schematic view of the first transferring mechanism of the embodiment of the present application;

[0028] Figure 8 Structure schematic view of the second transferring mechanism of the embodiment of the present application;

[0029] Figure 9 Combined structure schematic view of the lifting platform, the lifting cylinder, the lower slide and the third transferring mechanism of the embodiment of the present application;

[0030] Figure 10 Structure schematic view of the powder filling mechanism of the embodiment of the present application;

[0031] Figure 11 Structure schematic view of the mold stripping mechanism of the embodiment of the present application;

[0032] Figure 12 Side view of the mold stripping mechanism of the embodiment of the present application;

[0033] Figure 13 Rear view of the mold stripping mechanism of the embodiment of the present application.

[0034] In the figure:

[0035] 100, double-layer conveying assembly; 110, upper layer belt conveyor; 111, upper layer opening; 112, upper layer block; 120, lower layer belt conveyor; 121, lower layer opening; 122, lower layer block;

[0036] 200, powder filling mechanism; 210, powder feeding assembly; 220, powder filling station; 230, upper pressure cylinder;

[0037] 300, demolding mechanism; 301, first opening; 302, second opening; 310, demolding needle assembly; 320, demolding station; 330, product collecting assembly; 331, OK product collecting box; 332, NG product collecting box; 340, horizontal moving module; 350, separation assembly before demolding;

[0038] 400, first moving mechanism; 410, first linear module; 420, first downward pressing cylinder; 430, first push block;

[0039] 500, second moving mechanism; 510, second linear module; 520, second downward pressing cylinder; 530, second push block;

[0040] 600, upper slide; 610, visual inspection mechanism;

[0041] 700, lifting platform; 710, lifting cylinder;

[0042] 800, third moving mechanism; 810, third linear module; 820, rotating cylinder; 830, rotating rod; 840, third push block;

[0043] 900, lower slide. DETAILED DESCRIPTION

[0044] Hereinafter, the present application will be further described in conjunction with the drawings and specific embodiments, and it should be noted that the following described embodiments or technical features can be combined in any manner to form new embodiments without conflict.

[0045] REFERENCE Figures 1-13The embodiment of the present application provides an inductance powder filling and demolding integrated machine, which comprises a double-layer conveying assembly 100, a powder filling mechanism 200, a demolding mechanism 300, a first transferring mechanism 400 and a second transferring mechanism 500. The powder filling mechanism 200 and the demolding mechanism 300 are located on the same side of the double-layer conveying assembly 100, the double-layer conveying assembly 100 comprises an upper layer belt conveyor 110 and a lower layer belt conveyor 120 arranged side by side, and the conveying directions of the upper layer belt conveyor 110 and the lower layer belt conveyor 120 are opposite. Specifically, the two ends of the upper layer belt conveyor 110 are used for abutting against a filling core machine and a hot press machine respectively, the conveying direction is the filling core machine→the hot press machine, and the two ends of the lower layer belt conveyor 120 are also used for abutting against the filling core machine and the hot press machine respectively, but the conveying direction is the filling core machine←the hot press machine. In addition, the first transferring mechanism 400 is used for realizing the back-and-forth movement of a mold between the upper layer belt conveyor 110 and the powder filling mechanism 200, and the second transferring mechanism 500 is used for realizing the back-and-forth movement of the mold between the lower layer belt conveyor 120 and the demolding mechanism 300. The arrangement of the double-layer conveying assembly 100 and the layout of the powder filling mechanism 200 and the demolding mechanism 300 on the same side of the double-layer conveying assembly 100 can effectively optimize the occupied space and reasonably abut against the filling core and hot pressing processes.

[0046] In the inductance powder filling and demolding integrated machine provided by the embodiment of the present application, the first transferring mechanism 400 comprises a first linear module 410, a first downward pressing cylinder 420 and a first push block 430, the first linear module 410 is transversely perpendicular to the upper layer belt conveyor 110, the first downward pressing cylinder 420 is installed on the sliding block of the first linear module 410, and the first downward pressing cylinder 420 is connected with the first push block 430 to realize the up-and-down movement of the first push block 430; the second transferring mechanism 500 comprises a second linear module 510, a second downward pressing cylinder 520 and a second push block 530, the second linear module 510 is transversely perpendicular to the lower layer belt conveyor 120, the second downward pressing cylinder 520 is installed on the sliding block of the second linear module 510, and the second downward pressing cylinder 520 is connected with the second push block 530 to realize the up-and-down movement of the second push block 530. Here, the "transverse" refers to parallel to the reference surface (for example, a machine table surface or a horizontal surface).

[0047] In the inductance powder filling and demolding integrated machine provided by the embodiment of the present application, the side of the upper layer belt conveyor 110 towards the powder filling mechanism 200 is provided with an upper layer opening 111, and the upper layer opening 111 is used for facilitating the mold to enter and exit from the side of the upper layer belt conveyor 110. The side of the lower layer belt conveyor 120 towards the demolding mechanism 300 is provided with a lower layer opening 121, and the lower layer opening 121 is used for facilitating the mold to enter and exit from the side of the lower layer belt conveyor 120.

[0048] The upper layer belt conveyor 110 is provided with two upper layer stop blocks 112, each of which is connected with an upper layer cylinder to realize up and down movement, the upper layer opening 111 is between the two upper layer stop blocks 112, and the front upper layer stop block 112 is used to block the mold at a position corresponding to the upper layer opening 111; wherein the front upper layer stop block 112 refers to the stop block closer to the output end of the upper layer belt conveyor 110. The lower layer belt conveyor 120 is provided with two lower layer stop blocks 122, each of which is connected with a lower layer cylinder to realize up and down movement, the lower layer opening 121 is between the two lower layer stop blocks 122, and the front lower layer stop block 122 is used to block the mold at a position corresponding to the lower layer opening 121; wherein the front lower layer stop block 122 refers to the stop block closer to the output end of the lower layer belt conveyor 120.

[0049] The inductance powder filling and mold stripping integrated machine also comprises a visual detection mechanism 610 and an upper layer slide 600 between the upper layer belt conveyor 110 and the powder filling mechanism 200, the upper layer slide 600 is transversely perpendicular to the upper layer belt conveyor 110, and the visual detection mechanism 610 is used for visual detection of the mold in the upper layer slide 600, and the main detection items include: 1) before powder filling, whether the T-core on the mold is placed or missed; 2) after powder filling, whether the mold is completely filled.

[0050] The inductance powder filling and mold stripping integrated machine also comprises a lifting platform 700, a lifting cylinder 710 and a third transfer mechanism 800, the lifting platform 700 is between the upper layer slide 600 and the upper layer belt conveyor 110, the lifting cylinder 710 is connected with the lifting platform 700 to enable the lifting platform 700 to ascend to the upper layer station or descend to the lower layer station, the upper layer slide 600 is connected with the powder filling mechanism 200, when the lifting platform 700 is at the upper layer station, the lifting platform 700 realizes connection between the upper layer slide 600 and the upper layer belt conveyor 110, and the third transfer mechanism 800 is used for transferring the mold on the lifting platform 700 to between the mold stripping mechanism 300 and the lower layer belt conveyor 120 when the lifting platform 700 is at the lower layer station. The lifting platform 700 mainly plays a role of switching the mold moving path according to the detection result, for example, when the visual detection result is NG after powder filling, the first transfer mechanism 400 moves the mold to the lifting platform 700, and then the lifting platform 700 descends to the lower layer station; if the visual detection result is OK, the first transfer mechanism 400 moves the mold to the upper layer belt conveyor 110, and then the upper layer belt conveyor 110 sends the mold to the hot press.

[0051] The inductance powder filling and demolding integrated machine further comprises a lower slide 900 parallel to the lower belt conveyor 120, the lower slide 900 is located between the third transfer mechanism 800 and the lower belt conveyor 120, and the demolding mechanism 300 is provided with a first opening 301 for abutting the lower belt conveyor 120 and a second opening 302 for abutting the lower slide 900; when the lifting platform 700 is located at the lower station, the lifting platform 700 abuts the lower slide 900.

[0052] Specifically, the demolding mechanism 300 comprises a demolding needle assembly 310, a demolding station 320, a material collecting assembly 330, a horizontal moving module 340 and a pre-demolding separation assembly 350 for separating the middle mold plate and the middle mold slider in cooperation with the second transfer mechanism 500; wherein the mold is composed of the middle mold plate and the middle mold slider, which is a prior art. The demolding needle assembly 310 is located above the demolding station 320, and the material collecting assembly 330 is located below the demolding station 320, the material collecting assembly 330 comprises an OK product collecting box 331 and an NG product collecting box 332, OK means qualified, and NG means unqualified, the OK product collecting box 331 and the NG product collecting box 332 are installed side by side on the slider of the horizontal moving module 340. The horizontal moving module 340 is composed of a cylinder, a slide rail, a slider and the like, and the material collecting box below the demolding station 320 can be switched between the OK product collecting box 331 and the NG product collecting box 332 through the extension and retraction of the cylinder, so that the demolding mechanism 300 can not only collect normal products, but also recover materials when the detection result of the visual detection mechanism 610 is NG.

[0053] Specifically, the third transfer mechanism 800 comprises a third linear module 810, a rotating cylinder 820, a rotating rod 830 and a third push block 840, the third linear module 810 is parallel to the lower belt conveyor 120, the rotating cylinder 820 is installed on the slider of the third linear module 810, the output end of the rotating cylinder 820 is connected with the rotating rod 830, and the third push block 840 is installed on the rotating rod 830. The rotating cylinder 820 can make the rotating rod 830 vertically arranged (perpendicular to the machine table surface or horizontal surface) or horizontally arranged (parallel to the machine table surface or horizontal surface), so that the structure can avoid the components such as the lifting platform 700 and the lifting cylinder 710.

[0054] Specifically, the powder filling mechanism 200 comprises a powder feeding assembly 210, a powder filling station 220 and an upper pressing cylinder 230, the upper pressing cylinder 230 is located below the powder filling station 220 and the output end of the upper pressing cylinder 230 is connected with the powder filling station 220, and the powder feeding assembly 210 is located above the powder filling station 220.

[0055] The working principle of the embodiment of the present application is as follows:

[0056] 1) The mold (filled with T-core) from the core filling machine enters the upper belt conveyor 110, and is blocked by the upper stopper 112 at the position of the upper opening 111, at this time the lifting platform 700 is at the upper station, the mold is moved to the upper slide 600 by the first moving mechanism 400, then the mold is detected by the visual detection mechanism 610 for the first time, if the detection result is OK, the first moving mechanism 400 continues to move the mold to the powder filling assembly for powder filling, after the powder filling is completed, the first moving mechanism 400 moves the mold to the upper slide 600 for the second time, if the detection result is OK, the first moving mechanism 400 continues to move the mold to the upper belt conveyor 110, and then the mold filled with powder is moved to the hot press by the upper belt conveyor 110.

[0057] 2) When the first-time detection or the second-time detection result is NG, the first moving mechanism 400 moves the mold to the lifting platform 700, then the lifting platform 700 is lowered to the lower station, and then the mold is moved to the demolding mechanism 300 and the lower belt conveyor 120 by the third moving mechanism 800, then the mold is moved to the demolding mechanism 300 by the second moving mechanism 500 to recover the NG product material, and then the empty mold is moved to the lower belt conveyor 120 by the second moving mechanism 500, and the empty mold is moved to the core filling machine by the lower belt conveyor 120.

[0058] 3) The mold from the hot press enters the lower belt conveyor 120, and is blocked by the lower stopper 122 at the position of the lower opening 121, then the mold is moved to the pre-demolding separation assembly 350 by the second moving mechanism 500, the pre-demolding separation assembly 350 is lowered by a distance, then the middle mold plate is pulled out from the middle mold slide by the second moving mechanism 500, and the middle mold plate is moved to the demolding station 320 for normal product demolding, after the demolding is completed, the middle mold plate is moved to the middle mold slide by the second moving mechanism 500, and then the entire empty mold is moved to the lower belt conveyor 120, and the empty mold is moved to the core filling machine by the lower belt conveyor 120.

[0059] From the above working principle, it can be known that the inductive powder filling and demolding integrated machine can realize the integration and coordination of powder filling and demolding, and can be reasonably connected with the core filling and hot pressing process; in addition, the double-layer conveying assembly is arranged, the powder filling mechanism and the demolding mechanism are arranged on the same side of the double-layer conveying assembly, and the demolding mechanism is used for recovering normal products and NG products at the same time, and these designs can effectively simplify the machine structure and reduce the occupied space.

[0060] The above embodiments are only the preferred embodiments of the present application, and cannot be used to limit the protection scope of the present application, and any non-essential changes and replacements made by those skilled in the art on the basis of the present application shall fall within the protection scope of the present application.

Claims

1. An integrated machine for filling and demolding inductors, characterized in that, It includes a double-layer conveying assembly, a powder filling mechanism, a demolding mechanism, a first transfer mechanism, and a second transfer mechanism. The powder filling mechanism and the demolding mechanism are located on the same side of the double-layer conveying assembly. The double-layer conveying assembly includes an upper belt conveyor and a lower belt conveyor arranged side by side, with the upper belt conveyor and the lower belt conveyor having opposite conveying directions. The first transfer mechanism is used to realize the reciprocating movement of the mold between the upper belt conveyor and the powder filling mechanism, and the second transfer mechanism is used to realize the reciprocating movement of the mold between the lower belt conveyor and the demolding mechanism. The first transfer mechanism includes a first linear module, a first pressing cylinder, and a first push block. The first linear module is horizontally perpendicular to the upper belt conveyor. The first pressing cylinder is mounted on the slider of the first linear module and is connected to the first push block to realize the up and down movement of the first push block. The second transfer mechanism includes a second linear module, a second pressing cylinder, and a second push block. The second linear module is transversely perpendicular to the lower belt conveyor. The second pressing cylinder is mounted on the slider of the second linear module and is connected to the second push block to realize the up and down movement of the second push block. The upper belt conveyor has an upper opening on the side facing the powder filling mechanism, and the lower belt conveyor has a lower opening on the side facing the demolding mechanism. The upper belt conveyor is equipped with two upper stop blocks. Each upper stop block is connected to an upper cylinder to achieve vertical movement. The upper opening is located between the two upper stop blocks. The upper stop block in front is used to block the mold at the position corresponding to the upper opening. The lower belt conveyor is equipped with two lower stop blocks, each of which is connected to a lower cylinder to move up and down. The lower opening is located between the two lower stop blocks, and the lower stop block in front is used to block the mold at the position corresponding to the lower opening.

2. The inductor powder filling and demolding integrated machine as described in claim 1, characterized in that, The inductive powder filling and demolding integrated machine also includes a vision inspection mechanism and an upper slide rail located between the upper belt conveyor and the powder filling mechanism. The upper slide rail is horizontally perpendicular to the upper belt conveyor. The vision inspection mechanism is used to perform visual inspection on the mold located on the upper slide rail.

3. The inductor powder filling and demolding integrated machine as described in claim 2, characterized in that, The inductive powder filling and demolding integrated machine also includes a lifting platform, a lifting cylinder, and a third transfer mechanism. The lifting platform is located between the upper slide and the upper belt conveyor. The lifting cylinder is connected to the lifting platform so that the lifting platform can rise to the upper work position or fall to the lower work position. The upper slide is connected to the powder filling mechanism. When the lifting platform is in the upper work position, the lifting platform realizes the connection between the upper slide and the upper belt conveyor. The third transfer mechanism is used to transfer the mold on the lifting platform to the demolding mechanism and the lower belt conveyor when the lifting platform is in the lower work position.

4. The inductor powder filling and demolding integrated machine as described in claim 3, characterized in that, The inductor powder filling and demolding integrated machine also includes a lower slide parallel to the lower belt conveyor. The lower slide is located between the third transfer mechanism and the lower belt conveyor. The demolding mechanism is provided with a first opening that connects to the lower belt conveyor and a second opening that connects to the lower slide. When the lifting platform is in the lower work position, the lifting platform connects to the lower slide.

5. The inductor powder filling and demolding integrated machine as described in claim 4, characterized in that, The demolding mechanism includes a demolding pin assembly, a demolding station, a material receiving assembly, a transverse module, and a pre-demolding separation assembly. The pre-demolding separation assembly is used to cooperate with the second transfer mechanism to separate the middle template and the middle mold slider. The demolding pin assembly is located above the demolding station, and the material receiving assembly is located below the demolding station. The material receiving assembly includes OK product receiving boxes and NG product receiving boxes, which are installed side by side on the slider of the transverse module.

6. The inductor powder filling and demolding integrated machine as described in claim 3, characterized in that, The third transfer mechanism includes a third linear module, a rotary cylinder, a rotating rod, and a third push block. The third linear module is parallel to the lower belt conveyor. The rotary cylinder is mounted on the slider of the third linear module. The output end of the rotary cylinder is connected to the rotating rod. The third push block is mounted on the rotating rod.

7. The inductor powder filling and demolding integrated machine as described in claim 1, characterized in that, The powder filling mechanism includes a powder feeding component, a powder filling station, and an upper pressure cylinder. The upper pressure cylinder is located below the powder filling station and its output end is connected to the powder filling station. The powder feeding component is located above the powder filling station.

Images