Bipolar magnetizing equipment for mobile phone magnet

Abstract

The bipolar magnetizing equipment comprises an equipment box, an equipment platform is arranged at the upper end of the equipment box, and a vibration discharging assembly, a discharging pushing assembly, a discharging suction assembly, a magnetizing support, a transfer assembly and a placement translation assembly are arranged on the equipment platform; a discharging containing plate is arranged at the intersection of the vibration discharging assembly and the discharging pushing assembly, a discharging groove and a pushing groove are formed in the discharging containing plate, the vibration discharging assembly discharges magnets into the discharging groove, and the discharging pushing assembly pushes the magnets in the discharging groove into the pushing groove. A magnet placing frame and a lifting magnetizing assembly are arranged on the magnetizing support, and the discharging sucking assembly is located at the side end of the discharging pushing assembly; the lifting magnetizing assembly is located at the side end of the magnet containing frame. A translation placing frame is arranged at the upper end of the placing translation assembly, and the transferring assembly and the discharging pushing assembly are located on the two sides of the magnetizing support correspondingly. According to the utility model, the automation degree and the magnetizing efficiency of the magnetizing equipment are improved.

Description

TECHNICAL FIELD

[0001] The utility model relates to magnetizing equipment technical field especially relates to a kind of bipolar magnetizing equipment for mobile phone magnet. BACKGROUND

[0002] The bipolar magnetizing equipment is a kind of equipment for magnetic field processing and material changes magnetism, usually by magnetizing treatment to metal material, to change its physical and chemical properties. The working principle of bipolar magnetizing equipment is to produce bipolar magnetic field, quickly change the direction and intensity of magnetic field, to generate strong current and magnetic field interaction in material interior.

[0003] At present, the bipolar magnetizing equipment in the prior art is not high in the automatic degree of magnetizing assembly in the whole process of discharging, magnetizing, discharging, and can be completed by manual cooperation, thereby leading to the magnetizing efficiency of the bipolar magnetizing equipment in the prior art is not high enough. UTILITY MODEL CONTENT

[0004] In view of the deficiencies in the prior art, the utility model aims to provide a kind of bipolar magnetizing equipment for mobile phone magnet, to improve the automatic degree and magnetizing efficiency of magnetizing equipment.

[0005] To achieve the above object, the utility model provides the following technical scheme: a kind of bipolar magnetizing equipment for mobile phone magnet, including equipment box, equipment platform is equipped on the upper end of the equipment box, vibration discharging component, discharging pusher component, discharging suction component, magnetizing support, transfer component and placement translation component are arranged on the equipment platform;

[0006] The discharging end of the vibration discharging component is vertically abutted with the push end of the discharging pusher component, the intersection of the vibration discharging component and the discharging pusher component is equipped with discharging placement plate, the discharging placement plate is equipped with discharging groove and push groove that are vertically communicated with each other, the vibration discharging component discharges magnet into the discharging groove, and the discharging pusher component pushes the magnet in the discharging groove into the push groove;

[0007] Magnet placing rack and lifting magnetizing component are arranged on the magnetizing support, the discharging suction component is located at the side end of the discharging pusher component, and is used to suction the magnet in the push groove and place it on the magnet placing rack;

[0008] The lifting magnetizing component is located at the side end of the magnet placing rack, and is used for bipolar magnetizing each magnet placed on the magnet placing rack;

[0009] The upper end of the placement translation assembly is provided with a translation placement rack, the transfer assembly and the blanking pushing assembly are respectively located on both sides of the magnetizing support, the translation placement rack is close to the transfer assembly, and the transfer assembly is used for transferring the magnet after magnetization from the magnet placement rack to the translation placement rack.

[0010] Further, both sides of the magnetizing support are also provided with oppositely arranged clamping assemblies, the clamping assembly comprises a pushing cylinder, a first sliding base and a clamping piece, the piston rod of the pushing cylinder is fixedly connected to the side end of the first sliding base, the bottom of the first sliding base is slidably connected with first sliding rails on both sides, the clamping piece is fixed to the upper end of the side of the first sliding base away from the pushing cylinder, and the clamping piece is used for relatively matching clamping of the magnet placed on the magnet placement rack.

[0011] Further, both sides of the first sliding base close to one end of the pushing cylinder are also provided with clamping buffer assemblies, the clamping buffer assembly comprises a pair of buffer fixing pieces, a pair of buffers and a buffer connecting piece, the pair of buffer fixing pieces are oppositely arranged, the buffers are horizontally fixed on the buffer fixing pieces, the buffer ends of the pair of buffers are oppositely fixed on both sides of one end of the buffer connecting piece, and the other end of the buffer connecting piece is fixedly connected to the first sliding base.

[0012] Further, the vibration blanking assembly comprises a vibration disc, a linear vibration feeder and a vibration control box, the vibration control box is electrically connected with the vibration disc and the linear vibration feeder, the blanking end of the vibration disc is communicated with the feeding end of the linear vibration feeder, and the blanking end of the linear vibration feeder is communicated with the blanking groove.

[0013] Further, the blanking pushing assembly comprises a pushing column, a pushing branch, a driving motor, a cam, a pair of second guide rails, a second sliding base, a rolling support, a roller, an elastic rebound piece, a pushing connecting piece and a pushing strip.

[0014] The pushing column is fixed on the equipment platform, the pushing branch is fixed on the upper end of the pushing column, the driving motor is fixed on one side of the pushing branch, the output shaft of the driving motor penetrates through the pushing branch and fixedly sleeves the cam, the pair of second guide rails are fixed on the pushing branch, the second sliding base is slidably connected on the pair of second guide rails, the rolling support is fixed on the side of the second sliding base facing the cam, the roller is rotatably connected on the rolling support, the two ends of the elastic rebound piece are respectively fixedly connected to the second sliding base and the fixed plate on the side end of the driving motor, the pushing connecting piece is fixed on the side of the second sliding base away from the driving motor, the pushing strip is fixed on the pushing connecting piece, and the pushing strip is matched with the shape of the pushing groove.

[0015] When the driving motor drives the cam to rotate, the cam hits the roller to push the second sliding base to move towards the direction away from the driving motor, and the pushing strip pushes the magnet into the pushing groove.

[0016] Further, the unloading suction assembly comprises a first transverse driving part, a first lifting support, a first lifting driving part, a suction support and a negative pressure suction head, the first transverse driving part is fixed on a first transverse support at the side end of the unloading pushing assembly, the first lifting support is vertically fixed on the driving output end of the first transverse driving part, the first lifting driving part is fixed on the side end of the first lifting support, the suction support is fixed on the lower end of the driving output end of the first lifting driving part, and the negative pressure suction head is fixed on the lower end of the suction support.

[0017] Further, the lifting magnetizing assembly comprises a lifting magnetizing sub-support, a second lifting driving part, a lifting mounting rack and a magnetizing head, the magnetizing support is fixed on the upper end of the magnetizing support, the second lifting driving part is vertically fixed on the magnetizing support, the driving output end of the second lifting driving part is fixedly connected with the lifting mounting rack, and the magnetizing head is fixed on the lower end of the lifting mounting rack.

[0018] Further, the transfer assembly comprises a transfer support, a second transverse driving part, a second lifting support, a third lifting driving part, a lifting connecting plate, a magnet contact made of non-magnetic material, an attracting piece made of magnetic material and a fourth lifting driving part, the second transverse driving part is transversely fixed on the transfer support, the second lifting support is fixed on the side end of the driving output end of the second transverse driving part, the third lifting driving part is vertically fixed on the second lifting support, the lifting connecting plate is horizontally fixed on the lower end of the driving output end of the third lifting driving part, the magnet contact is fixed on the lower end of the lifting connecting plate, a lifting channel is vertically arranged in the magnet contact, the attracting piece is slidably connected in the lifting channel, the attracting piece is fixed on the lower end of the driving output end of the fourth lifting driving part, and the fourth lifting driving part is fixed on the lifting connecting plate.

[0019] The utility model discloses the following beneficial effects:

[0020] The utility model discloses a vibration blanking assembly, blanking push assembly, blanking suction assembly, lifting magnetizing assembly, transfer assembly and the placement translation assembly are integratedly arranged on the equipment platform, and the vibration blanking assembly, blanking push assembly, blanking suction assembly, lifting magnetizing assembly, transfer assembly and the placement translation assembly realize the vibration blanking of magnet, blanking push, blanking suction, bipolar magnetizing, magnet transfer and magnet placement on the equipment platform in proper order automatically, the whole process does not need manual participation, and the mechanical structure of each component assembly and mutual cooperation are relied on throughout the journey, and therefore the automation degree and magnetizing efficiency of magnetizing equipment are improved significantly. BRIEF DESCRIPTION OF DRAWINGS

[0021] Figure 1 It is the whole structure schematic diagram of bipolar magnetizing equipment in the utility model,

[0022] Figure 2 It is the combined state structure schematic diagram of clamping assembly, clamping buffer assembly and lifting magnetizing assembly in the utility model,

[0023] Figure 3 It is the structure schematic diagram of blanking push assembly in the utility model,

[0024] Figure 4 It is the structure schematic diagram of vibration blanking assembly in the utility model,

[0025] Figure 5 It is the structure schematic diagram of blanking suction assembly in the utility model,

[0026] Figure 6 It is the structure schematic diagram of transfer assembly in the utility model.

[0027] Fig. 1 is a device box; 2 is a device platform; 3 is a vibration blanking assembly; 31 is a vibration disc; 32 is a linear vibration feeder; 33 is a vibration control box; 4 is a blanking pushing assembly; 42 is a pushing support plate; 43 is a driving motor; 44 is a cam; 46 is a second sliding base; 47 is a rolling support; 48 is a roller; 49 is an elastic rebounding piece; 410 is a pushing connecting piece; 411 is a pushing bar; 5 is a blanking suction assembly; 51 is a first transverse driving component; 52 is a first lifting support; 53 is a first lifting driving component; 54 is a suction support; 55 is a negative pressure suction head; 6 is a magnetizing support; 7 is a transfer assembly; 71 is a transfer support; 72 is a second transverse driving component; 73 is a second lifting support; 74 is a third lifting driving component; 75 is a lifting connecting plate; 76 is a magnet contact piece; 77 is an attracting piece; 78 is a fourth lifting driving component; 8 is a placing translation assembly; 9 is a blanking placing plate; 10 is a magnet placing rack; 11 is a lifting magnetizing assembly; 111 is a lifting magnetizing sub-support; 112 is a second lifting driving component; 113 is a lifting mounting rack; 114 is a magnetizing head; 12 is a translation placing rack; 13 is a clamping assembly; 131 is a pushing air cylinder; 132 is a first sliding base; 133 is a clamping piece; 134 is a first sliding rail; 14 is a clamping buffer assembly; 141 is a buffer fixing piece; 142 is a buffer; 143 is a buffer connecting piece. DETAILED DESCRIPTION

[0028] The utility model is further explained in detail below in combination with the drawings and examples. Identical parts are denoted by identical reference numerals. It should be noted that the words "front", "back", "left", "right", "up" and "down" used in the following description refer to the directions in the drawings, and the words "bottom surface" and "top surface", "inner" and "outer" refer to the directions towards or away from the geometric center of a particular component.

[0029] Example 1, refer to Figure 1 , this example provides a bipolar magnetizing equipment for mobile phone magnets, which can improve the automation degree and magnetizing efficiency of the magnetizing equipment, and comprises a device box 1, a device platform 2 is arranged at the upper end of the device box 1, a vibration blanking assembly 3, a blanking pushing assembly 4, a blanking suction assembly 5, a magnetizing support 6, a transfer assembly 7 and a placing translation assembly 8 are arranged on the device platform 2;

[0030] The blanking end of the vibration blanking assembly 3 is vertically abutted with the pushing end of the blanking pushing assembly 4, a blanking placing plate 9 is arranged at the intersection of the vibration blanking assembly 3 and the blanking pushing assembly 4, a blanking groove and a pushing groove which are in communication with each other are formed in the blanking placing plate 9, the vibration blanking assembly 3 blanks the magnets into the blanking groove, and the blanking pushing assembly 4 pushes the magnets in the blanking groove into the pushing groove;

[0031] The magnet placing rack 10 and the lifting magnet charging assembly 11 are arranged on the magnet charging support 6, the unloading suction assembly 5 is arranged at the side end of the unloading pushing assembly 4, and is used for sucking the magnets in the pushing groove and placing the same on the magnet placing rack 10;

[0032] The lifting magnet charging assembly is arranged at the side end of the magnet placing rack 10, and is used for bipolar charging of the magnets placed on the magnet placing rack 10;

[0033] The upper end of the placing translation assembly 8 is provided with a translation placing rack 12, the transfer assembly 7 and the unloading pushing assembly 4 are arranged at the two sides of the magnet charging support 6 respectively, the translation placing rack 12 is close to the transfer assembly 7, and the transfer assembly 7 is used for transferring the magnets after magnet charging from the magnet placing rack 10 to the translation placing rack 12.

[0034] Specifically, in the embodiment, the vibration unloading assembly 3, the unloading pushing assembly 4, the unloading suction assembly 5, the lifting magnet charging assembly 11, the transfer assembly 7 and the placing translation assembly 8 are arranged on the equipment platform 2, and the vibration unloading assembly 3, the unloading pushing assembly 4, the unloading suction assembly 5, the lifting magnet charging assembly 11, the transfer assembly 7 and the placing translation assembly 8 realize vibration unloading, unloading pushing, unloading suction, bipolar charging, magnet transfer and magnet placing on the equipment platform 2 in sequence, the whole process does not need manual participation, and the whole process relies on the mechanical structure and mutual cooperation of the components, so that the automation degree and the magnet charging efficiency of the magnet charging equipment are improved significantly.

[0035] Working principle of the embodiment 1:

[0036] Firstly, the vibration unloading assembly 3 performs vibration unloading, and the magnets are vibration unloaded into the unloading groove, then the unloading pushing assembly 4 pushes the magnets in the unloading groove into the pushing groove, then the unloading suction assembly 5 sucks the magnets in the pushing groove and places the same on the magnet placing rack 10, the lifting magnet charging assembly 11 performs bipolar charging on the magnets placed on the magnet placing rack 10, and the placing translation assembly 8 transfers the magnets after magnet charging to the translation placing rack 12, so that the whole magnet charging and transfer process is completed.

[0037] Embodiment 2, refer to Figure 2For the second embodiment of the application, unlike the previous embodiment, this embodiment provides a pair of clamping assemblies 13, which can realize the stability of the magnet during the lifting and magnetizing process, wherein the two sides of the magnetizing support 6 are also provided with oppositely arranged clamping assemblies 13, the clamping assembly 13 comprises a push cylinder 131, a first sliding base 132 and a clamping piece 133, the piston rod of the push cylinder 131 is fixedly connected to the side end of the first sliding base 132, the bottom of the first sliding base 132 is slidably connected with a first sliding rail 134 on both sides, and the clamping piece 133 is fixed to the upper end of the first sliding base 132 away from the push cylinder 131, and the clamping piece 133 is used for relatively clamping the magnet placed on the magnet placing rack 10.

[0038] Working principle of embodiment 2:

[0039] After the magnet is placed on the magnet placing rack 10, a pair of push cylinders 131 simultaneously drive the piston rods to push towards the magnet in the middle, and a pair of first sliding bases 132 drive a pair of clamping pieces 133 to clamp the magnet from both sides of the magnet, so as to realize clamping and fixing.

[0040] Preferably, embodiment 3, referring to Figure 2 For the third embodiment of the application, unlike the previous embodiment, this embodiment provides a clamping buffer assembly 14, which can improve the durability of the magnet during the clamping process, wherein the two sides of the end of the first sliding base 132 close to the push cylinder 131 are also provided with the clamping buffer assembly 14, the clamping buffer assembly 14 comprises a pair of buffer fixing pieces 141, a pair of buffers 142 and a buffer connecting piece 143, the pair of buffer fixing pieces 141 are oppositely arranged, the buffer 142 is fixed horizontally on the buffer fixing piece 141, the buffer ends of the pair of buffers 142 are oppositely fixed on both sides of one end of the buffer connecting piece 143, and the other end of the buffer connecting piece 143 is fixedly connected to the first sliding base 132.

[0041] Working principle of embodiment 3:

[0042] During the process that the pair of push cylinders 131 drive the clamping pieces 133 to clamp the magnet from both sides, the two pairs of buffers 142 buffer the clamping and loosening process of the clamping pieces 133, so as to avoid damaging the magnet due to over-clamping, thereby improving the durability of the magnet during the clamping process, wherein the buffer 142 can be an oil buffer 142.

[0043] Preferably, referring to Figure 4 The vibration blanking assembly 3 comprises a vibration disc 31, a linear vibration feeder 32 and a vibration control box 33, the vibration control box 33 is electrically connected with the vibration disc 31 and the linear vibration feeder 32, the blanking end of the vibration disc 31 is communicated with the feeding end of the linear vibration feeder 32, and the blanking end of the linear vibration feeder 32 is communicated with the blanking groove.

[0044] Specifically, in this embodiment, the magnet is first vibrated out of the vibrating disc 31, and then vibrated into the feeding groove from the linear vibrating feeder 32.

[0045] Preferably, referring to Figure 3 , the feeding pushing assembly 4 comprises a pushing column, a pushing support plate 42, a driving motor 43, a cam 44, a pair of second guide rails, a second sliding base 46, a rolling bracket 47, a roller 48, an elastic rebounding piece 49, a pushing connecting piece 410 and a pushing bar 411;

[0046] The pushing column is fixed on the equipment platform 2, the pushing support plate 42 is fixed on the upper end of the pushing column, the driving motor 43 is fixed on one side of the pushing support plate 42, the output shaft of the driving motor 43 penetrates through the pushing support plate 42 and is fixed to the cam 44, the pair of second guide rails are fixed on the pushing support plate 42, the second sliding base 46 is slidingly connected to the pair of second guide rails, the rolling bracket 47 is fixed on one side of the second sliding base 46 facing the cam 44, the roller 48 is rotatably connected to the rolling bracket 47, the two ends of the elastic rebounding piece 49 are respectively fixedly connected to the second sliding base 46 and a fixed plate on the side end of the driving motor 43, the pushing connecting piece 410 is fixed on the side of the second sliding base 46 away from the driving motor 43, and the pushing bar 411 is fixed on the pushing connecting piece 410, wherein the pushing bar 411 is matched with the shape of the feeding groove;

[0047] When the driving motor 43 drives the cam 44 to rotate, the cam 44 hits the roller 48 to drive the second sliding base 46 to move away from the driving motor 43, and the pushing bar 411 pushes the magnet into the feeding groove.

[0048] Preferably, referring to Figure 5 , the feeding sucking assembly 5 comprises a first transverse driving component 51, a first lifting bracket 52, a first lifting driving component 53, a sucking bracket 54 and a negative pressure suction head 55, the first transverse driving component 51 is fixed on a first transverse support plate located on the side end of the feeding pushing assembly 4, the first lifting bracket 52 is vertically fixed on the driving output end of the first transverse driving component 51, the first lifting driving component 53 is fixed on the side end of the first lifting bracket 52, the sucking bracket 54 is fixed on the lower end of the driving output end of the first lifting driving component 53, and the negative pressure suction head 55 is fixed on the lower end of the sucking bracket 54.

[0049] Specifically, in this embodiment, the first transverse driving component 51 can be a linear slide table placed horizontally, and the first lifting driving component 53 can be a lifting cylinder. The first transverse driving component 51 drives the negative pressure suction head 55 to move above the feeding groove, the first lifting driving component 53 drives the negative pressure suction head 55 to suck the magnet, then the first transverse driving component 51 drives the negative pressure suction head 55 to move above the magnet placing rack 10, and then the first lifting driving component 53 drives the negative pressure suction head 55 to descend, and the negative pressure suction head 55 releases the magnet to complete the placement.

[0050] Preferably, referring to Figure 2 , the lifting magnetizing assembly 11 comprises a lifting magnetizing sub-bracket 111, a second lifting driving component 112, a lifting mounting bracket 113 and a magnetizing head 114, the lifting magnetizing sub-bracket 111 is fixed on the upper end of the magnetizing bracket 6, the second lifting driving component 112 is vertically fixed on the lifting magnetizing sub-bracket 111, the driving output end of the second lifting driving component 112 is fixedly connected with the lower end of the lifting mounting bracket 113, and the magnetizing head 114 is fixed on the lower end of the lifting mounting bracket 113.

[0051] Specifically, in the embodiment, the second lifting driving component 112 can be a lifting cylinder, the second lifting driving component 112 drives the magnetizing head 114 to move downward to above the magnet, so that the magnetizing head 114 performs bipolar magnetization on the magnet, and after the magnetization is completed, the second lifting driving component 112 drives the magnetizing head 114 to rise.

[0052] Preferably, referring to Figure 6 , the transfer assembly 7 comprises a transfer bracket 71, a second transverse driving component 72, a second lifting bracket 73, a third lifting driving component 74, a lifting connecting plate 75, a magnet contact piece 76 made of non-magnetic material, an attracting piece 77 made of magnetic material and a fourth lifting driving component 78, the second transverse driving component 72 is fixed transversely on the transfer bracket 71, the second lifting bracket 73 is fixed on the side end of the driving output end of the second transverse driving component 72, the third lifting driving component 74 is vertically fixed on the second lifting bracket 73, the lifting connecting plate 75 is horizontally fixed on the lower end of the driving output end of the third lifting driving component 74, the magnet contact piece 76 is fixed on the lower end of the lifting connecting plate 75, the magnet contact piece 76 is internally provided with a lifting channel in the vertical direction, the attracting piece 77 is slidingly connected in the lifting channel, the attracting piece 77 is fixed on the lower end of the driving output end of the fourth lifting driving component 78, and the fourth lifting driving component 78 is fixed on the lifting connecting plate 75.

[0053] Specifically, in the embodiment, the second transverse driving component 72 can be a linear slide, the third lifting driving component 74 and the fourth lifting driving component 78 are both lifting cylinders, the second transverse driving component 72 drives the magnet contact piece 76 to move above the magnet on the magnet placing rack 10, then the third lifting driving component 74 drives the magnet contact piece 76 to descend, while the fourth lifting driving component 78 drives the attracting piece 77 to slide down in the magnet contact piece 76 to be flush with the bottom of the magnet contact piece 76, since the attracting piece 77 has magnetism, the magnet after being magnetized is attracted by the attracting piece 77, then the third lifting driving component 74 drives the magnet contact piece 76 to rise, the second transverse driving component 72 drives the magnet contact piece 76 to move to the translation placing rack 12, then the third lifting driving component 74 drives the magnet contact piece 76 to descend above the translation placing rack 12, then the fourth lifting driving component 78 drives the attracting piece 77 to rise in the magnet contact piece 76, the magnet is separated from the magnet contact piece 76, so that the magnet falls on the translation placing rack 12. Preferably, the placing translation assembly 8 comprises a linear slide placed longitudinally, for driving the translation placing rack 12 to move longitudinally.

[0054] The preferred embodiments of the utility model are described above, the protection scope of the utility model is not only limited to the above-mentioned embodiments, all technical schemes under the idea of the utility model belong to the protection scope of the utility model. It should be pointed out that for ordinary skilled in the art, some improvements and decorations without departing from the principle of the utility model, these improvements and decorations should also be regarded as the protection scope of the utility model.

Claims

1. A bipolar magnetizing apparatus for cell phone magnets, characterized by, Including equipment box (1), the equipment platform (2) is equipped on the upper end of the equipment box (1), the vibration unloading assembly (3), the unloading push assembly (4), the unloading suction assembly (5), the magnetization support (6), the transfer assembly (7) and the placement translation assembly (8) are arranged on the equipment platform (2); The unloading end of the vibration unloading assembly (3) is perpendicular to the push end of the unloading push assembly (4), the intersection of the vibration unloading assembly (3) and the unloading push assembly (4) is provided with a unloading placement plate (9), the unloading placement plate (9) is provided with a unloading groove and a push groove which are vertically communicated, the vibration unloading assembly (3) unloads the magnet into the unloading groove, and the unloading push assembly (4) pushes the magnet in the unloading groove into the push groove; The magnetization support (6) is provided with a magnet placement rack (10) and a lifting magnetization assembly (11), the unloading suction assembly (5) is located at the side end of the unloading push assembly (4) and is used for sucking the magnet in the push groove and placing the same on the magnet placement rack (10); The lifting magnetization assembly (11) is located at the side end of the magnet placement rack (10) and is used for bipolar magnetization of each magnet placed on the magnet placement rack (10); The placement translation assembly (8) is provided with a translation placement rack (12) at the upper end, the transfer assembly (7) and the unloading push assembly (4) are located on the two sides of the magnetization support (6) respectively, the translation placement rack (12) is close to the transfer assembly (7), and the transfer assembly (7) is used for transferring the magnet after magnetization from the magnet placement rack (10) to the translation placement rack (12).

2. The dual pole magnetizing apparatus for mobile phone magnets according to claim 1, characterized in that: The magnetization support (6) is also provided with oppositely arranged clamping assemblies (13) on the two sides, the clamping assembly (13) comprises a push air cylinder (131), a first sliding base (132) and a clamping piece (133), the piston rod of the push air cylinder (131) is fixedly connected to the side end of the first sliding base (132), the bottom of the first sliding base (132) is slidably connected with a first sliding rail (134) on the two sides, and the clamping piece (133) is fixed to the upper end of the side, away from the push air cylinder (131), of the first sliding base (132).

3. The dual pole magnetizing apparatus for cell phone magnets of claim 2, wherein: The first sliding base (132) is also provided with clamping buffer assemblies (14) on the two sides of one end close to the push air cylinder (131), the clamping buffer assembly (14) comprises a pair of buffer fixing pieces (141), a pair of buffers (142) and a buffer connecting piece (143), the pair of buffer fixing pieces (141) are oppositely arranged, the buffers (142) are horizontally fixed on the buffer fixing pieces (141), the buffer ends of the pair of buffers (142) are oppositely fixed on the two sides of one end of the buffer connecting piece (143), and the other end of the buffer connecting piece (143) is fixedly connected with the first sliding base (132).

4. The dual pole magnetizing apparatus for cell phone magnets of claim 1, wherein: The vibration blanking assembly (3) comprises a vibration disc (31), a linear vibration feeder (32) and a vibration control box (33), the vibration control box (33) is electrically connected with the vibration disc (31) and the linear vibration feeder (32), the blanking end of the vibration disc (31) is communicated with the feeding end of the linear vibration feeder (32), and the blanking end of the linear vibration feeder (32) is communicated with the blanking groove.

5. The dual pole magnetizing apparatus for cell phone magnets of claim 1, wherein: The blanking pushing assembly (4) comprises a pushing column, a pushing branch plate (42), a driving motor (43), a cam (44), a pair of second guide rails, a second sliding base (46), a rolling support (47), a roller (48), an elastic rebounding piece (49), a pushing connecting piece (410) and a pushing strip (411). The pushing column is fixed on the equipment platform (2), the pushing branch plate (42) is fixed on the upper end of the pushing column, the driving motor (43) is fixed on one side of the pushing branch plate (42), the output shaft of the driving motor (43) penetrates through the pushing branch plate (42) and is fixedly sleeved with the cam (44), a pair of the second guide rails are fixed on the pushing branch plate (42), the second sliding base (46) is slidably connected with the second guide rails, the rolling support (47) is fixed on the side of the second sliding base (46) facing the cam (44), the roller (48) is rotatably connected with the rolling support (47), the two ends of the elastic rebounding piece (49) are fixedly connected with the second sliding base (46) and the fixed plate on the side end of the driving motor (43) respectively, the pushing connecting piece (410) is fixed on the side of the second sliding base (46) away from the driving motor (43), the pushing strip (411) is fixed on the pushing connecting piece (410), and the pushing strip (411) is matched with the shape of the pushing groove. When the driving motor (43) drives the cam (44) to rotate, the cam (44) hits the roller (48) to push the second sliding base (46) to move away from the driving motor (43), and the pushing strip (411) pushes the magnet into the pushing groove.

6. The dual pole magnetizing apparatus for cell phone magnets of claim 1, wherein: The blanking sucking assembly (5) comprises a first transverse driving component (51), a first lifting support (52), a first lifting driving component (53), a sucking support (54) and a negative pressure suction head (55), the first transverse driving component (51) is fixed on the first transverse support located at the side end of the blanking pushing assembly (4), the first lifting support (52) is vertically fixed on the driving output end of the first transverse driving component (51), the first lifting driving component (53) is fixed on the side end of the first lifting support (52), the sucking support (54) is fixed on the lower end of the driving output end of the first lifting driving component (53), and the negative pressure suction head (55) is fixed on the lower end of the sucking support (54).

7. The dual pole magnetizing apparatus for cell phone magnets of claim 1, wherein: The lifting magnetizing assembly (11) comprises a lifting magnetizing sub-bracket (111), a second lifting driving component (112), a lifting mounting bracket (113) and a magnetizing head (114), the lifting magnetizing sub-bracket (111) is fixed on the upper end of the magnetizing bracket (6), the second lifting driving component (112) is vertically fixed on the lifting magnetizing sub-bracket (111), the driving output end lower end of the second lifting driving component (112) is fixedly connected with the lifting mounting bracket (113), and the magnetizing head (114) is fixed on the lower end of the lifting mounting bracket (113).

8. The dual pole magnetizing apparatus for cell phone magnets of claim 1, wherein: The transfer assembly (7) comprises a transfer bracket (71), a second transverse driving component (72), a second lifting bracket (73), a third lifting driving component (74), a lifting connecting plate (75), a magnet contact piece (76) made of non-magnetic material, an attractive piece (77) made of magnetic material and a fourth lifting driving component (78), the second transverse driving component (72) is fixed transversely on the transfer bracket (71), the second lifting bracket (73) is fixed on the side end of the driving output end of the second transverse driving component (72), the third lifting driving component (74) is vertically fixed on the second lifting bracket (73), the lifting connecting plate (75) is horizontally fixed on the lower end of the driving output end of the third lifting driving component (74), the magnet contact piece (76) is fixed on the lower end of the lifting connecting plate (75), the magnet contact piece (76) is internally provided with a lifting channel in the vertical direction, the attractive piece (77) is slidingly connected in the lifting channel, the attractive piece (77) is fixed on the lower end of the driving output end of the fourth lifting driving component (78), and the fourth lifting driving component (78) is fixed on the lifting connecting plate (75).

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