Disc energizer structure

Abstract

The present invention discloses a disc energizing machine structure, wherein the core pushing assembly includes a motor, a first cam, a swing rod, and a sliding frame. The first cam is rotatably mounted on the machine platform and is transmission-connected to the motor and the swing rod. The swing rod is swingably mounted on the machine platform and is transmission-connected to the sliding frame and the first cam. The sliding frame is slidably mounted on the machine platform and slides between an initial position and a push-out position. When the sliding frame is at the initial position, the sliding frame corresponds to the end of the conveyor belt, and the capacitor core at the end of the conveyor belt moves onto the sliding frame. When the sliding frame is at the push-out position, the sliding frame corresponds to the clamping claw, and the clamping claw clamps the capacitor core on the sliding frame. Since the first cam, the divider, and the second cam are all transmission-connected to the same motor, the motor speed is much faster than the transmission speed of the cylinder, so that the disc energizing machine structure can perform energizing tests on 80 or more capacitor cores within one minute, which greatly improves production efficiency, reduces production costs, and greatly increases profit margins.

Description

Technical Field

[0001] The invention relates to a disc energizer structure. Background Art

[0002] In the existing disc-type energizing machine, the transmission mechanism that transfers the capacitor core from the vibration barrel to the energizing test tooling and the transmission mechanism that drives the movable disk to move up and down are both cylinder transmission structures. Since the cylinder transmission requires a certain waiting time, the number of capacitor cores that can be energized tested in one minute is only 30-40, resulting in low production efficiency and high production costs. Summary of the invention

[0003] The present invention provides a disc energizer structure, which overcomes the shortcomings of the background technology. The technical solution adopted by the present invention to solve its technical problems is:

[0004] The disc energizing machine structure is characterized in that it includes a machine platform, a feeding mechanism, a feeding mechanism and an energizing testing mechanism, wherein:

[0005] The feeding mechanism is used to provide the capacitor core and enable the capacitor core to be placed horizontally. It is installed on the machine table and has a feeding channel.

[0006] The feeding mechanism is used to transport the capacitor core provided by the feeding mechanism to the energizing test mechanism, and it includes a conveyor belt part and a core pushing assembly. The head end of the conveyor belt corresponds to the feeding channel, and the tail end cooperates with the core pushing assembly; the core pushing assembly includes a motor, a first cam, a swing rod, and a sliding frame. The motor is mounted on the machine and is transmission-connected to the first cam. The first cam is rotationally mounted on the machine and transmission-connected to the swing rod. The swing rod is swingably mounted on the machine and transmission-connected to the sliding frame and the first cam. The sliding frame is mounted on the machine in a forward and backward sliding manner, and the sliding frame slides between an initial position and a push-out position.

[0007] The enabling test mechanism is provided with a clamping claw;

[0008] When the sliding frame is at the initial position, the sliding frame corresponds to the end of the conveyor belt, and the capacitor core at the end of the conveyor belt moves onto the sliding frame; when the sliding frame is at the push-out position, the sliding frame corresponds to the clamping claw, and the clamping claw clamps the capacitor core on the sliding frame.

[0009] In a preferred embodiment: the core pushing assembly also includes a pressure rod, which is movably installed on the sliding frame up and down and can move synchronously with the movement of the sliding frame. When the sliding frame is located at the initial position, the pressure rod moves downward and rests on the capacitor core; when the sliding frame is reset from the pushing position to the initial position, the pressure rod moves upward for reset.

[0010] In a preferred embodiment: the machine is provided with a support frame, the support frame is fixedly provided with a fixed block with an inclined surface; the sliding frame is rotatably provided with a rotating rod, the pressure rod is fixedly connected to one end of the rotating rod, and a first roller is provided at the other end of the rotating rod, and an elastic member is also provided, and the two ends of the elastic member are respectively connected to one end of the rotating rod and the sliding frame, when the sliding frame moves from an initial position to a push-out position, the first roller slides upward along the inclined surface until the first roller leaves the inclined surface so that one end of the rotating rod rotates downward under the action of the elastic member, thereby driving the pressure rod to move downward; when the sliding frame is reset from the push-out position to the initial position, the first roller slides downward along the inclined surface so that one end of the rotating rod rotates upward, thereby driving the pressure rod to move upward.

[0011] In a preferred embodiment: the core pushing assembly also includes a transmission frame and a transmission plate, a first transmission shaft is arranged at one end of the transmission frame, and the other end of the transmission frame is fixedly connected to the swing rod; a first eccentric groove is opened on the side of the first cam, and the first transmission shaft extends into the first eccentric groove, and the rotation of the first cam drives the first transmission shaft to move forward and backward and then drives the swing rod to swing forward and backward; the transmission plate is L-shaped, its short side section is fixedly connected to the top of the swing rod, and its long side section is fixedly connected to the sliding frame.

[0012] In a preferred embodiment: the energizing test mechanism includes a divider, a turntable, a movable disk, and a second cam. The divider is rotatably mounted on the machine and is located below the turntable, and the divider is transmission-connected to the motor; the turntable is rotatably mounted on the machine and transmission-connected to the divider, and a bottom contact rod is fixedly provided on the top surface of the turntable; the clamp is movably mounted on the turntable and is provided with a conductive copper sheet connected to the bottom contact rod; the second cam is transmission-connected to the motor, the movable disk is movably mounted on the machine up and down and transmission-connected to the second cam, and a top contact rod is fixedly provided on the bottom surface of the movable disk; when the turntable stops rotating, the sliding frame is located at the ejection position, and the movable disk moves downward under the action of the second cam to make the top contact rod contact with the bottom contact rod and thereby make the conductive copper sheet conductive to perform an energizing test on the capacitor core; when the turntable rotates through one station, the sliding frame is reset to the initial position, and the movable disk moves upward under the action of the second cam to separate the top contact rod from the bottom contact rod and thereby make the conductive copper sheet disconnected to allow the capacitor core to enter the next station.

[0013] In a preferred embodiment: the empowerment testing mechanism also includes a transmission rod, a second transmission shaft is arranged at the bottom end of the transmission rod, the second cam is provided with a second eccentric groove, and the second transmission shaft extends into the second eccentric groove; the divider is provided with a through hole, the top end of the transmission rod passes through the through hole and extends out of the divider, and the top end of the transmission rod is fixedly connected to the movable disk.

[0014] In a preferred embodiment: 24 groups of bottom contact rods are arranged in a ring-shaped interval, each group of bottom contact rods has 2 bottom contact rods and the 2 bottom contact rods are arranged in an inner and outer interval; 24 groups of top contact rods are arranged in a ring-shaped interval, each group of top contact rods has 2 top contact rods and the 2 top contact rods are arranged in an inner and outer interval; the number of clamping jaws is 24 and they are arranged in a ring-shaped interval along the outer circumference of the turntable, each clamping jaw has two clamping arms arranged oppositely, and the opposite surfaces of the two clamping arms are provided with conductive copper sheets, and the two conductive copper sheets of each clamping jaw are respectively connected to the two bottom contact rods of each group of bottom contact rods.

[0015] Compared with the background technology, this technical solution has the following advantages:

[0016] 1. Since the core pushing assembly adopts a cam transmission structure, and since the first cam, the divider and the second cam are all connected to the same motor, the motor speed is much faster than the transmission speed of the cylinder, so that the disc energizing machine structure can perform energizing tests on 80 or more capacitor cores within one minute. At the same time, the control system of this equipment adopts "programmable controller + touch screen" and a good human-machine operation interface, which greatly improves production efficiency, reduces production costs, and greatly increases profit margins.

[0017] 2. A pressure rod is provided. When the sliding frame is located at the initial position, the pressure rod moves downward and abuts against the capacitor core, which can limit the capacitor core in the axial direction and prevent the capacitor core from falling off the sliding frame during the sliding process of the sliding frame.

[0018] 3. The first roller and the inclined surface cooperate to drive the pressure rod to move up and down, so that the pressure rod has better stability and high reliability.

[0019] 4. The enabling test mechanism drives the movable disk to move up and down through the second cam, further improving production efficiency and reducing production costs; at the same time, the second cam, the divider and the first cam are all connected to the same motor, which not only saves resources, but also reduces the size of the machine and reduces the space occupied.

[0020] 5. The divider is provided with a through hole, and the top end of the transmission rod passes through the through hole and extends out of the divider, so that the structure of the enabling test mechanism is more compact and the volume of the enabling test mechanism is reduced. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] The present invention will be further described below in conjunction with the accompanying drawings and embodiments.

[0022] Figure 1 The overall schematic diagram of a disc-type energizer structure of a preferred embodiment is depicted.

[0023] Figure 2 A top view schematically showing a disc-type energizer structure according to a preferred embodiment is shown.

[0024] Figure 3 A schematic structural diagram of a vibrating barrel of a preferred embodiment is depicted.

[0025] Figure 4 Draws Figure 3 A magnified view of the local structure.

[0026] Figure 5 A schematic diagram of the structure of the conveyor belt part is shown.

[0027] Figure 6 A three-dimensional structural schematic diagram of the core pusher assembly is depicted.

[0028] Figure 7 A schematic side view of a core pusher assembly is shown.

[0029] Figure 8 A partial three-dimensional structural schematic diagram of the enabling test mechanism is drawn.

[0030] Fig. 9 A side view schematic diagram of the enabling test mechanism with the clamping jaws omitted is shown.

[0031] Fig.10 Draws Fig. 9 AA cross-sectional view schematic diagram of .

[0032] Fig.11 A schematic structural diagram of the clamp is shown. DETAILED DESCRIPTION

[0033] Please refer to Figures 1 to 11 A preferred embodiment of the disc energizing machine structure includes a machine platform 100, a feeding mechanism 200, a feeding mechanism and an energizing test mechanism 300, and the energizing test mechanism 300 is provided with a clamping claw 310. The top and bottom surfaces of the capacitor core 10 are sprayed with conductive gold powder.

[0034] The feeding mechanism 200 is used to provide the capacitor core 10 and enable the capacitor core 10 to be placed horizontally. It is mounted on the machine platform 100 and has a feeding channel 210 .

[0035] In this embodiment, the feeding mechanism 200 adopts a vibrating barrel structure, such as Figure 3 As shown, two covers 220 are provided on the top of the vibration barrel. When feeding is required, the covers 220 can be opened. The covers 220 remain closed during the feeding process to the energizing test mechanism 300. A through hole 230 is provided on the side of the vibration barrel, and the feeding channel 210 extends out of the vibration barrel through the through hole 230.

[0036] like Figure 4As shown, after vibrating and screening by the vibrating barrel, each capacitor core 10 can be placed horizontally in the feeding channel 210 , and the capacitor core 10 is placed horizontally to facilitate the clamping claw 310 to clamp the capacitor core 10 .

[0037] The feeding mechanism is used to transport the capacitor core 10 provided by the feeding mechanism 100 to the energizing test mechanism 300 , and includes a conveyor belt portion 400 and a core pushing assembly 500 .

[0038] like Figure 5 As shown, the conveyor belt part 400 includes a third motor 410, a synchronous belt 420 and a conveyor belt 430. Since this part of the structure is a relatively mature technology in the prior art, it is not repeated. The head end of the conveyor belt 430 corresponds to the feed channel 210, and the tail end cooperates with the core pusher assembly 500.

[0039] like Figure 6 and Figure 7 As shown, the core pushing assembly 500 includes a motor 320 , a first cam 510 , a swing rod 520 , and a sliding frame 530 .

[0040] The motor 320 is mounted on the machine platform 100 and is transmission-connected to the first cam 510. The first cam 510 is rotationally mounted on the machine platform 100 and is transmission-connected to the swing lever 520. The swing lever 520 is swingably mounted on the machine platform 100 and is transmission-connected to the sliding frame 530 and the first cam 510. The sliding frame 530 is slidably mounted on the machine platform 100 forward and backward, and the sliding frame 530 slides between an initial position and a push-out position.

[0041] When the sliding frame 530 is located at the initial position, the sliding frame 530 corresponds to the end of the conveyor belt 430, and the capacitor core 10 located at the end of the conveyor belt 430 moves onto the sliding frame 530; when the sliding frame 530 is located at the ejection position, the sliding frame 530 corresponds to the clamping claw 310, and the clamping claw 310 clamps the capacitor core 10 on the sliding frame.

[0042] In this embodiment, the core pushing assembly 500 also includes a pressure rod 540, which is movably installed up and down on the sliding frame 530 and can move synchronously with the movement of the sliding frame 530. When the sliding frame 530 is in the initial position, the pressure rod 540 moves downward and rests on the capacitor core 10; when the sliding frame 530 is reset from the ejection position to the initial position, the pressure rod 540 moves upward for reset.

[0043] In this embodiment, a second roller 541 is further provided at the bottom end of the pressure rod 540, and when the pressure rod 540 abuts against the top surface of the capacitor core 10, the second roller 541 contacts the top surface of the capacitor core 10. When the clamping jaws 310 clamp the capacitor core 10 on the sliding frame and the sliding frame 530 just returns to the initial position from the ejection position, the second roller 541 can slide out along the top surface of the capacitor core 10 without affecting the clamping force of the clamping jaws 310 on the capacitor core 10, so that the capacitor core 10 is more stable when clamped by the clamping jaws 310.

[0044] In this embodiment, the machine 100 is provided with a support frame 110, and the support frame 110 is fixedly provided with a fixed block 120 with an inclined surface 121; the sliding frame 530 is rotatably provided with a rotating rod 550, and the pressure rod 540 is fixedly connected to one end of the rotating rod 550, and the other end of the rotating rod 550 is provided with a first roller 551, and an elastic member (not shown in the figure) is also provided, and the two ends of the elastic member are respectively connected to one end of the rotating rod 550 and the sliding frame 530. When the sliding frame 530 moves from the initial position to the push-out position, the first roller 551 slides upward along the inclined surface 121 until the first roller 551 leaves the inclined surface 121 so that one end of the rotating rod 550 rotates downward under the action of the elastic member, thereby driving the pressure rod 540 to move downward; when the sliding frame 530 is reset from the push-out position to the initial position, the first roller 551 slides downward along the inclined surface 121 so that one end of the rotating rod 550 rotates upward, thereby driving the pressure rod 540 to move upward. The first roller 551 cooperates with the inclined surface 121 to drive the pressing rod 540 to move up and down, so that the pressing rod 540 has better stability and higher reliability.

[0045] In this embodiment, the core pushing assembly 500 also includes a transmission frame 560 and a transmission plate 570. A first transmission shaft 561 is provided at one end of the transmission frame 560, and the other end of the transmission frame 560 is fixedly connected to the swing rod 520. A first eccentric groove 511 is opened on the side of the first cam 510, and the first transmission shaft 561 extends into the first eccentric groove 511. The rotation of the first cam 510 drives the first transmission shaft 561 to move forward and backward, and then drives the swing rod 520 to swing forward and backward. The transmission plate 570 is L-shaped, and its short side section is fixedly connected to the top of the swing rod 520, and its long side section is fixedly connected to the sliding frame 530.

[0046] like Figure 8 and Fig. 9 As shown, the energizing test mechanism 300 includes a divider 330 , a rotating disk 340 , a movable disk 350 , and a second cam 360 .

[0047] The divider 330 is rotatably mounted on the machine 100 and is located below the turntable 340. The divider 330 is transmission-connected to the motor 320. The turntable 340 is rotatably mounted on the machine 100 and is transmission-connected to the divider 330. A bottom contact rod 341 is fixedly disposed on the top surface of the turntable 340. The transmission structure of the divider 330 and the turntable 340 is prior art and will not be described in detail. The basic working principle is: when the motor 320 rotates one circle, the divider 330 rotates one station, driving the turntable 340 to rotate one station.

[0048] The second cam 360 is transmission-connected to the motor 320 and the movable plate 350. The second cam, the divider and the first cam are all transmission-connected to the same motor, which not only saves resources, but also reduces the size of the machine and reduces the occupied space.

[0049] In this embodiment, the enabling test mechanism 300 further includes a transmission rod 370, a second transmission shaft is disposed at the bottom end of the transmission rod 370, a second eccentric groove is formed on the second cam 360, and the second transmission shaft extends into the second eccentric groove; Fig.10 As shown, the divider 330 is provided with a through hole 331, the top end of the transmission rod 370 passes through the through hole 331 and extends out of the divider 330, and the top end of the transmission rod 370 is fixedly connected to the movable disk 350. The divider 330 is provided with a through hole, the top end of the transmission rod 370 passes through the through hole 331 and extends out of the divider 330, making the structure of the enabling test mechanism more compact and reducing the volume of the enabling test mechanism.

[0050] The clamping jaw 310 is movably mounted on the rotating disk 340 and is provided with a conductive copper sheet 311 conductively connected to a bottom contact rod 341 .

[0051] The movable disk 350 is movably mounted on the machine table 100 up and down, and a top contact rod 351 is fixedly arranged on the bottom surface of the movable disk 350; when the turntable 340 stops rotating, the sliding frame 530 is located at the ejection position, and the movable disk 350 moves downward under the action of the second cam 360 to make the top contact rod 351 contact with the bottom contact rod 341, thereby making the conductive copper sheet 311 conductive to perform an energizing test on the capacitor core 10; when the turntable 340 rotates through a station, the sliding frame 530 is reset to the initial position, and the movable disk 350 moves upward under the action of the second cam 360 to separate the top contact rod 351 from the bottom contact rod 341, thereby disconnecting the conductive copper sheet 311 and allowing the capacitor core 10 to enter the next station.

[0052] In this embodiment, 24 groups of bottom contact rods 341 are arranged in an annular interval, each group of bottom contact rods has 2 bottom contact rods 341 and the 2 bottom contact rods 341 are arranged in an inner and outer interval; 24 groups of top contact rods 351 are arranged in an annular interval, each group of top contact rods has 2 top contact rods 351 and the 2 top contact rods 351 are arranged in an inner and outer interval;

[0053] In this embodiment, there are 24 clamping jaws 310 and they are arranged in a ring-shaped interval along the outer circumference of the turntable 340. Each clamping jaw 310 has two clamping arms 312 arranged opposite to each other. The opposite surfaces of the two clamping arms 312 are provided with conductive copper sheets 311. The two conductive copper sheets 311 of each clamping jaw are respectively conductively connected to the two bottom contact rods 341 of each group of bottom contact rods.

[0054] The clamping jaws 310 are driven by a cylinder (not shown in the figure). When the sliding frame 530 slides to the ejection position, the two clamping arms 312 are relatively separated by the action of the cylinder so that the sliding frame 530 can smoothly enter between the two clamping arms 312; when the sliding frame 530 is located at the ejection position, the two clamping arms 312 are relatively close to clamp the capacitor core 10. At this time, the conductive copper sheet 311 of each clamping arm is in contact with the top and bottom surfaces of the capacitor core 10 respectively.

[0055] The working principle of the disc energizer structure is:

[0056] Open the cover plate 220 at the top of the vibration barrel, place the capacitor core 10 in the vibration barrel, and then cover the cover plate 220;

[0057] In the initial state, the sliding frame 530 is located at the initial position, and the first roller 541 is located at the bottom end of the inclined surface 121;

[0058] The disc energizing machine is started, and the capacitor cores 10 in the vibrating barrel are arranged horizontally along the feeding channel 210 in turn, and are transported to the sliding frame 530 of the core pushing assembly through the conveyor belt 430. The motor 320 rotates to drive the first cam 510 to rotate, and the first cam 510 rotates to drive the first transmission shaft 561 to move forward and then drive the transmission frame 560 to move forward. The transmission frame 560 pushes the bottom end of the swing rod 520 forward and then drives the upper end of the swing rod 520 and the transmission plate 570 to swing backward. The sliding frame 530 slides backward to the ejection position driven by the transmission plate 570; at the same time, the first roller 541 moves upward along the inclined surface 121 until the first roller 541 leaves the inclined surface 121, and one end of the rotating rod 550 rotates downward under the action of the elastic member and then drives the pressing rod 540 to move downward so that the second roller 541 abuts against the upper side of the capacitor core 10 to axially limit the capacitor core 10;

[0059] The motor 320 rotates one circle to drive the divider 330 to rotate one station and then drives the turntable 340 to rotate one station. After that, the turntable 340 stops rotating under the action of the divider 330. At this time, the sliding frame 530 at the push-out position corresponds to the clamping claw 310 of the station. The two clamping arms 312 of the clamping claw of the station clamp the capacitor core 10 on the sliding frame under the action of the cylinder. The conductive copper sheet 311 of each clamping arm contacts the top surface and the bottom surface of the capacitor core 10 respectively. Then, the sliding frame 530 slides forward to the initial position driven by the first cam 510 to reset, and the pressing rod 540 returns to the initial state.

[0060] The motor 320 rotates while driving the second cam 360 to rotate, and drives the movable plate 350 and the top contact rod 351 to move downward through the cooperation of the second transmission shaft and the second eccentric groove, so that the top contact rod 351 contacts the bottom contact rod 341 one by one, so as to energize or test the capacitor core 10 of the station;

[0061] The rotating disk 340 continues to rotate one station under the action of the divider 330, so that the clamping claw 310 of the corresponding sliding frame 530 rotates to the next station; during the process of the rotating disk 340 rotating to the next station, the movable disk 350 moves upward to separate the top contact rod 351 from the bottom contact rod 341;

[0062] The cycle repeats itself.

[0063] When the movable plate 350 moves downward, the 24 groups of top contact rods 351 and the 24 groups of bottom contact rods 341 can contact each other one by one at the same time, thereby enabling the conductive copper sheets 311 of the clamps of the 24 workstations to be turned on so as to energize or test the 24 capacitor cores 10 at the same time.

[0064] The 24 workstations are as follows: Workstation 1, capacitor core loading; Workstation 2, low voltage AC empowerment 1; Workstation 3, low voltage AC empowerment 2; Workstation 4, high voltage AC empowerment 1; Workstation 5, high voltage AC empowerment 2; Workstation 6, resistor discharge; Workstation 7, short circuit discharge; Workstation 8, AC withstand voltage poor unloading; Workstation 9, DC low voltage empowerment 1; Workstation 10, DC low voltage empowerment 2; Workstation 11, DC low voltage empowerment 3; Workstation 12, DC positive high voltage empowerment 1; Workstation 13, DC positive high voltage empowerment 2; workstation 14, DC positive high voltage empowerment 3; workstation 15, DC positive high voltage empowerment 4; workstation 16, resistance discharge; workstation 17, DC negative high voltage empowerment 1; workstation 18, DC negative high voltage empowerment 2; workstation 19, DC negative high voltage empowerment 3; workstation 20, DC negative high voltage empowerment 4; workstation 21, resistance discharge; workstation 22, short circuit discharge; workstation 23, DC defective unloading; workstation 24, qualified product unloading.

[0065] Since the core pushing assembly 500 adopts a cam transmission structure, and since the first cam 510 and the divider and the second cam 360 are all connected to the same motor 320, the rotation speed of the motor 320 is much faster than the transmission speed of the cylinder, the disc energizing machine structure can perform energizing tests on 80 or more capacitor cores within one minute. At the same time, the control system of this equipment adopts "programmable controller + touch screen" and has a good human-machine operation interface, which greatly improves production efficiency, reduces production costs, and greatly increases profit margins.

[0066] Since the core pushing assembly 500 adopts a cam transmission structure, the transmission speed of the first cam 510 transmission connection motor is much faster than the transmission speed of the cylinder, so that the disc energizing machine structure can perform energizing tests on 80 or more capacitor cores within one minute, which greatly improves production efficiency, reduces production costs, and greatly increases profit margins.

[0067] The above description is only a preferred embodiment of the present invention, and therefore cannot be used to limit the scope of the present invention. That is, equivalent changes and modifications made according to the patent scope of the present invention and the contents of the specification should still fall within the scope of the present invention.

Claims

1. The disc energizer structure is characterized by: It includes a machine, a feeding mechanism, a feeding mechanism and an enabling testing mechanism, among which: The feeding mechanism is used to provide the capacitor core and enable the capacitor core to be placed horizontally. It is installed on the machine table and has a feeding channel. The feeding mechanism is used to transport the capacitor core provided by the feeding mechanism to the energizing test mechanism, and it includes a conveyor belt part and a core pushing assembly. The head end of the conveyor belt corresponds to the feeding channel, and the tail end cooperates with the core pushing assembly; the core pushing assembly includes a motor, a first cam, a swing rod, and a sliding frame. The motor is mounted on the machine and is transmission-connected to the first cam. The first cam is rotationally mounted on the machine and transmission-connected to the swing rod. The swing rod is swingably mounted on the machine and transmission-connected to the sliding frame and the first cam. The sliding frame is mounted on the machine in a forward and backward sliding manner, and the sliding frame slides between an initial position and a push-out position. The enabling test mechanism is provided with a clamping claw; When the sliding frame is at the initial position, the sliding frame corresponds to the end of the conveyor belt, and the capacitor core at the end of the conveyor belt moves onto the sliding frame; when the sliding frame is at the push-out position, the sliding frame corresponds to the clamping claw, and the clamping claw clamps the capacitor core on the sliding frame; The energizing test mechanism includes a divider, a turntable, a movable disk, and a second cam. The divider is rotatably mounted on the machine and is located below the turntable, and the divider is transmission-connected to the motor; the turntable is rotatably mounted on the machine and transmission-connected to the divider, and a bottom contact rod is fixedly provided on the top surface of the turntable; the clamp is movably mounted on the turntable and is provided with a conductive copper sheet connected to the bottom contact rod; the second cam is transmission-connected to the motor, the movable disk is movably mounted on the machine up and down and transmission-connected to the second cam, and a top contact rod is fixedly provided on the bottom surface of the movable disk; when the turntable stops rotating, the sliding frame is located at the ejection position, and the movable disk moves downward under the action of the second cam to make the top contact rod contact with the bottom contact rod, thereby making the conductive copper sheet conductive to perform an energizing test on the capacitor core; when the turntable rotates through one station, the sliding frame is reset to the initial position, and the movable disk moves upward under the action of the second cam to separate the top contact rod from the bottom contact rod, thereby disconnecting the conductive copper sheet and allowing the capacitor core to enter the next station.

2. The disc energizer structure according to claim 1, characterized in that: The core pushing assembly also includes a pressure rod, which is movably installed on the sliding frame up and down and can move synchronously with the movement of the sliding frame. When the sliding frame is in the initial position, the pressure rod moves downward and rests on the capacitor core; when the sliding frame is reset from the pushing position to the initial position, the pressure rod moves upward for reset.

3. The disc energizer structure according to claim 2, characterized in that: The machine is provided with a support frame, and the support frame is fixedly provided with a fixed block with an inclined surface; the sliding frame is rotatably provided with a rotating rod, the pressure rod is fixedly connected to one end of the rotating rod, and a first roller is provided at the other end of the rotating rod, and an elastic member is also provided, and the two ends of the elastic member are respectively connected to one end of the rotating rod and the sliding frame, when the sliding frame moves from an initial position to an ejection position, the first roller slides upward along the inclined surface until the first roller leaves the inclined surface so that one end of the rotating rod rotates downward under the action of the elastic member, thereby driving the pressure rod to move downward; when the sliding frame is reset from the ejection position to the initial position, the first roller slides downward along the inclined surface so that one end of the rotating rod rotates upward, thereby driving the pressure rod to move upward.

4. The disc energizer structure according to claim 2 or 3, characterized in that: The core pushing assembly also includes a transmission frame and a transmission plate. A first transmission shaft is arranged at one end of the transmission frame, and the other end of the transmission frame is fixedly connected to the swing rod. A first eccentric groove is opened on the side of the first cam, and the first transmission shaft extends into the first eccentric groove. The rotation of the first cam drives the first transmission shaft to move forward and backward, and then drives the swing rod to swing forward and backward. The transmission plate is L-shaped, and its short side section is fixedly connected to the top of the swing rod, and its long side section is fixedly connected to the sliding frame.

5. The disc energizer structure according to claim 1, characterized in that: The empowerment testing mechanism also includes a transmission rod, a second transmission shaft is arranged at the bottom end of the transmission rod, the second cam is provided with a second eccentric groove, and the second transmission shaft extends into the second eccentric groove; the divider is provided with a through hole, the top end of the transmission rod passes through the through hole and extends out of the divider, and the top end of the transmission rod is fixedly connected to the movable disk.

6. The disc energizer structure according to claim 1 or 5, characterized in that: There are 24 groups of bottom contact rods arranged in a ring-shaped interval, each group of bottom contact rods has 2 bottom contact rods and the 2 bottom contact rods are arranged in an inner and outer interval; there are 24 groups of top contact rods arranged in a ring-shaped interval, each group of top contact rods has 2 top contact rods and the 2 top contact rods are arranged in an inner and outer interval; there are 24 clamping jaws arranged in a ring-shaped interval along the outer circumference of the rotating disk, each clamping jaw has two clamping arms arranged oppositely, and the opposite surfaces of the two clamping arms are provided with conductive copper sheets, and the two conductive copper sheets of each clamping jaw are respectively connected to the two bottom contact rods of each group of bottom contact rods.

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