阅读说明：本技术 一种半导体石墨棒加工成型系统 (Semiconductor graphite rod processing and forming system ) 是由 周志强 张力 蔡月磊 于 2021-08-06 设计创作，主要内容包括：本发明涉及一种半导体石墨棒加工成型系统,包括基座、切削机构、限位机构、送料机构、承载组件及导向件,限位机构包括按压组件和拨送组件,送料机构包括传输组件及若干推送组件；承载组件承接石墨棒,推送组件在传输组件的带动下将承载组件上的石墨棒向按压组件处推送,并在导向件的作用下将推送中的石墨棒进行转动,按压组件对石墨棒进行按压限位,拨送组件将完成限位的石墨棒向切削机构内拨动输送,切削机构对石墨棒表面进行切削加工,本发明解决了目前石墨棒在加工过程中不能连续自动上料、切削过程石墨棒易断裂以及不能自动对加工碎屑进行收集等问题。(The invention relates to a semiconductor graphite rod processing and forming system which comprises a base, a cutting mechanism, a limiting mechanism, a feeding mechanism, a bearing assembly and a guide piece, wherein the limiting mechanism comprises a pressing assembly and a poking assembly; the graphite rod conveying device comprises a bearing assembly, a conveying assembly, a pushing assembly, a poking assembly and a cutting mechanism, wherein the bearing assembly is used for bearing a graphite rod, the pushing assembly is driven by the conveying assembly to push the graphite rod on the bearing assembly to a pressing assembly, the pushing assembly rotates the pushed graphite rod under the action of a guide piece, the pressing assembly presses the graphite rod for limiting, the poking assembly pokes and conveys the graphite rod subjected to limiting into the cutting mechanism, and the cutting mechanism performs cutting processing on the surface of the graphite rod.)

1. The utility model provides a semiconductor graphite rod machine-shaping system, includes base (1), its characterized in that: the cutting mechanism (2) and the limiting mechanism (3) are arranged on the base (1), the feeding mechanism (4) is arranged on one side of the base (1), the bearing assembly (5) is arranged above the feeding mechanism (4), the limiting mechanism (3) comprises a pressing assembly (31) and a poking assembly (32), the feeding mechanism (4) comprises a transmission assembly (41) and a plurality of pushing assemblies (42), and a guide piece (6) is arranged on the moving path of each pushing assembly (42); bearing component (5) are used for accepting graphite rod (10), propelling movement subassembly (42) are with graphite rod (10) on bearing component (5) to pressing down propelling movement of subassembly (31) department under the drive of transmission subassembly (41) to graphite rod (10) in will propelling movement rotate under the effect of guide (6), it is spacing to press down graphite rod (10) in pressing down subassembly (31), dial and send subassembly (32) will accomplish spacing graphite rod (10) and stir the transport in cutting mechanism (2), cutting mechanism (2) carry out cutting process to graphite rod (10) surface.

2. The semiconductor graphite rod processing and forming system according to claim 1, wherein the cutting mechanism (2) comprises a rotating frame (21), a motor a (22), a cutting barrel (23) rotatably arranged on the rotating frame (21), and a plurality of inclined plane grooves (24) formed in the circumferential direction of the cutting barrel (23), a feeding hole (25) and a discharging hole (26) are respectively formed in two ends of the cutting barrel (23), a cutting ring assembly a (27), a cutting ring assembly b (28) and a cutting ring assembly c (29) are sequentially arranged between the feeding hole (25) and the discharging hole (26), a discharging hole (211) is formed in the outer side of each inclined plane groove (24), a belt (212) is connected between the motor a (22) and the cutting barrel (23), and the diameter of the feeding hole (25) is larger than that of the discharging hole (26).

3. The processing and forming system of the semiconductor graphite rod as claimed in claim 2, wherein a plurality of cutters a (271), b (281) and c (291) are respectively arranged on the inner walls of the ring cutter assembly a (27), the ring cutter assembly b (28) and the ring cutter assembly c (29) in the circumferential direction, the length of the cutter a (271) is smaller than that of the cutter b (281), the length of the cutter b (281) is smaller than that of the cutter c (291), and the sides of the cutters a (271), b (281) and c (291) facing the feed hole (25) are all provided with the inclined plane edge (213).

4. The processing and forming system of the semiconductor graphite rod as claimed in claim 1, wherein the pressing assembly (31) comprises a supporting base (311), a pressing ring (312) arranged on the supporting base (311), and a feeding inclined surface (313) arranged at one end of the pressing ring (312), the supporting base (311) is provided with a correction groove (314), and the pressing ring (312) is fixedly connected with the supporting base (311) through a supporting arm (315).

5. The processing and forming system of the semiconductor graphite rod as claimed in claim 4, wherein the pulling assembly (32) comprises a plurality of rotating seats (321) fixedly arranged on the supporting seat (311) and pulling rollers (322) rotatably arranged on the rotating seats (321).

6. The processing and forming system of the semiconductor graphite rod as claimed in claim 1, wherein the transmission assembly (41) comprises a support (411), a motor b (412), a chain (413) driven by the motor b (412), and a support rail (414) arranged on one side of the chain (413).

7. The processing and forming system of a semiconductor graphite rod as claimed in claim 6, the pushing assembly (42) comprises a pushing arm (421) fixedly arranged on a chain (413), a guide rod (422) fixedly arranged on one side of the pushing arm (421), a pushing column (423) fixedly arranged on the other side of the pushing arm (421), a rotating rod a (424) rotatably arranged on the pushing arm (421), a rotating rod b (425), a rotating rod c (426) and a rotating rod d (427), a gear a (428) and a conical tooth a (429) respectively fixedly arranged at two ends of the rotating rod a (424), a gear b (4211) and a conical tooth b (4212) fixedly arranged at one end of the rotating rod b (425), a gear c (4213) fixedly arranged at one end of the rotating rod c (426) and a gear d (4214) and a rotating disc (4215) respectively fixedly arranged at two ends of the rotating rod d (427).

8. The processing and forming system of the semiconductor graphite rod as claimed in claim 1, wherein the bearing assembly (5) comprises supporting legs (51) and inclined receiving plates (52) symmetrically arranged at two sides of the supporting legs (51).

9. The processing and forming system for the semiconductor graphite rod as claimed in claim 6, wherein the guide member (6) comprises a supporting block (61) and a rack (62) with one end fixedly connected with the supporting block (61), and the other end of the supporting block (61) is fixedly connected with a supporting guide rail (414).

10. The semiconductor graphite rod processing and forming system of claim 2, wherein a material blocking cover (214) is fixedly arranged on the rotating frame (21), material discharging grooves (215) are formed in two sides of the rotating frame (21), material through holes (216) are formed in two ends of the material blocking cover (214), a material discharging assembly (7) is arranged above the feeding mechanism (4), the material discharging assembly (7) comprises a fixing leg (71), a material discharging pipe (72) fixedly arranged on the fixing leg (71), a material storing hopper (73) fixedly arranged at the upper end of the material discharging pipe (72), a sliding groove (74) formed in the lower end of the material discharging pipe (72), a material blocking plate (75) slidably arranged in the sliding groove (74), a plurality of sliding rods (76) and a plurality of cams (77) fixedly arranged on two sides of the material blocking plate (75), and springs (78) arranged on the sliding rods (76), the sliding rod (76) is arranged on the fixed leg (71) in a sliding mode.

Technical Field

The invention relates to the field of advanced inorganic nonmetallic materials, in particular to a semiconductor graphite rod processing and forming system.

Background

With the rapid development of society, graphite materials are widely applied to manufacturing production of various industries, and have good thermal conductivity, corrosion resistance, chemical stability and the like. At present to the graphite rod in-process of processing, need place transmission device with square graphite rod one by one on, the rethread is drawn the piece and is carried square graphite rod forward, gets into processingequipment and cuts into circular graphite rod, and at the in-process of cutting, the graphite piece that cuts down still need collect it through adsorption equipment and discharge.

The inventor finds that the graphite rod has the defects of low cutting efficiency, incapability of realizing continuous automatic feeding, poor continuity of the machining process, easiness in breaking of the graphite rod in the cutting process, incapability of automatically collecting scraps by means of gravity and the like in the machining process.

Disclosure of Invention

The invention aims to overcome the defects of the prior art, and provides a semiconductor graphite rod processing and forming system which is provided with a base, a cutting mechanism and a limiting mechanism are arranged on the base, a feeding mechanism is arranged on one side of the base, a bearing component is arranged above the feeding mechanism, a pressing component and a poking component are arranged in the limiting mechanism, a transmission component and a plurality of pushing components are arranged in the feeding mechanism, and a guide piece is arranged on a moving path of the pushing components, so that the problems that the conventional graphite rod cannot be continuously and automatically fed in the processing process, the graphite rod is easy to break in the cutting process, processing scraps cannot be automatically collected and the like are solved.

The technical solution of the invention is as follows:

a semiconductor graphite rod processing and forming system comprises a base, wherein a cutting mechanism and a limiting mechanism are arranged on the base, a feeding mechanism is arranged on one side of the base, a bearing assembly is arranged above the feeding mechanism, the limiting mechanism comprises a pressing assembly and a poking assembly, the feeding mechanism comprises a transmission assembly and a plurality of pushing assemblies, and a guide piece is arranged on a moving path of each pushing assembly; the bearing component is used for bearing a graphite rod, the pushing component pushes the graphite rod on the bearing component to the pressing component under the driving of the transmission component, the graphite rod in pushing is rotated under the action of the guide piece, the pressing component presses the graphite rod to be limited, the poking component pokes and conveys the graphite rod with limited position to the cutting mechanism, and the cutting mechanism performs cutting processing on the surface of the graphite rod.

Preferably, the cutting mechanism comprises a rotating frame, a motor a, a cutting barrel and a plurality of inclined plane grooves, the cutting barrel is rotatably arranged on the rotating frame, the inclined plane grooves are formed in the circumferential direction of the cutting barrel, feed holes and discharge holes are formed in the two ends of the cutting barrel respectively, a cutting ring assembly a, a cutting ring assembly b and a cutting ring assembly c are sequentially arranged between the feed holes and the discharge holes, a discharge hole is formed in the outer side of each inclined plane groove, a belt is connected between the motor a and the cutting barrel, and the diameter of each feed hole is larger than the diameter of each discharge hole.

Preferably, a plurality of cutters a, b and c are arranged on the inner walls of the cutting ring assembly a, the cutting ring assembly b and the cutting ring assembly c in the circumferential direction respectively, the length of each cutter a is smaller than that of each cutter b, the length of each cutter b is smaller than that of each cutter c, and inclined plane edges are arranged on the sides, facing the feeding hole, of the cutters a, the cutters b and the cutters c.

Preferably, the pressing assembly comprises a supporting seat, a pressing ring arranged on the supporting seat and a feeding inclined plane arranged at one end of the pressing ring, the supporting seat is provided with a correction groove, and the pressing ring is fixedly connected with the supporting seat through a supporting arm.

Preferably, the pulling assembly comprises a plurality of rotating seats fixedly arranged on the supporting seat and a pulling roller rotatably arranged on the rotating seats.

Preferably, the transmission assembly comprises a support, a motor b, a chain driven by the motor b and a support guide rail arranged on one side of the chain.

Preferably, the pushing assembly comprises a pushing arm fixedly arranged on the chain, a guide rod fixedly arranged on one side of the pushing arm, a pushing column fixedly arranged on the other side of the pushing arm, a rotating rod a rotatably arranged on the pushing arm, a rotating rod b, a rotating rod c and a rotating rod d, a gear a and a bevel gear a fixedly arranged at two ends of the rotating rod a, a gear b and a bevel gear b fixedly arranged at one end of the rotating rod b, a gear c fixedly arranged at one end of the rotating rod c, a gear d and a rotating disc fixedly arranged at two ends of the rotating rod d.

Preferably, the bearing assembly comprises supporting legs and inclined material receiving plates symmetrically arranged on two sides of each supporting leg.

Preferably, the guide member includes a support block and a rack having one end fixedly connected to the support block, and the other end of the support block is fixedly connected to the support rail.

Preferably, the material blocking cover is fixedly arranged on the rotating frame, material discharging grooves are formed in two sides of the rotating frame, material through holes are formed in two ends of the material blocking cover, a material discharging assembly is arranged above the feeding mechanism and comprises a fixing leg, a material discharging pipe fixedly arranged on the fixing leg, a storage hopper fixedly arranged at the upper end of the material discharging pipe, a chute arranged at the lower end of the material discharging pipe, a material blocking plate arranged in the chute in a sliding mode, a plurality of sliding rods and a plurality of cams fixedly arranged on two sides of the material blocking plate, and springs arranged on the sliding rods, wherein the sliding rods are arranged on the fixing leg in a sliding mode.

The invention has the beneficial effects that:

1. the invention is provided with a base, a cutting mechanism and a limiting mechanism are arranged on the base, a feeding mechanism is arranged on one side of the base, a bearing component is arranged above the feeding mechanism, a pressing component and a poking component are arranged in the limiting mechanism, a transmission component and a plurality of pushing components are arranged in the feeding mechanism, a guide piece is arranged on the moving path of the pushing components, a material blocking cover is arranged outside the cutting mechanism, a discharging component is arranged above the feeding mechanism, the bearing component receives a graphite rod falling from the discharging component, the pushing components push the graphite rod on the bearing component to the pressing component under the drive of the transmission component and rotate the graphite rod in pushing under the action of the guide piece, the pressing component presses and limits the graphite rod, the poking component pokes and conveys the graphite rod which is limited to the cutting mechanism, the cutting mechanism processes and cuts a square graphite rod into a round graphite rod, keep off the material cover and block and collect the graphite piece that splashes after will cutting, each subassembly is mutually supported and has been solved present graphite rod and can not continuous automatic feeding in the course of working, and machining efficiency is lower, the easy fracture of cutting process graphite rod and can not collect the scheduling problem to the processing piece automatically.

2. The invention is provided with a pushing assembly and a guide piece, when a gear a in the pushing assembly rotates through a rack in the guide piece, the bevel gear a is driven to synchronously rotate, the bevel gear b drives a gear b to rotate under the coordination with the bevel gear a, the gear b drives a gear d to rotate through a gear c, so that a rotating disc rotates along with the gear d, the guide piece is arranged on the moving path of the pushing assembly, the pushing assembly can rotate a graphite rod through the rotating disc in the process of pushing the graphite rod on a material receiving inclined plate, so that the side edge of the graphite rod can be tightly attached to the material receiving inclined plate in the conveying process, the subsequent cutting of the graphite rod is more convenient, compared with the conventional graphite rod cutting equipment, the pushing assembly and the guide piece are arranged, the graphite rod can be continuously conveyed to a cutting mechanism, and the angle of the graphite rod can be adjusted in the conveying process, make the graphite rod more laminate with connecing the material swash plate, still make the graphite rod more smooth in transportation process when better promotion graphite rod cutting process continuity.

3. According to the graphite rod cutting machine, the pressing assembly is arranged, the pressing ring and the correcting groove are arranged in the pressing assembly, when a graphite rod is conveyed to the pressing assembly, the graphite rod is corrected by the correcting groove, the situation that one end of the graphite rod droops and contacts the supporting seat first to be broken in the conveying process is prevented, the corrected graphite rod enters the pressing ring to be limited by the pressing ring, the graphite rod is enabled to be stable when entering the cutting mechanism to cut, the graphite rod is prevented from being broken due to the fact that the whole graphite rod shakes, the pressing assembly is arranged, the cutting mechanism is convenient to cut the circumference of the graphite rod when the integrity of the graphite rod in the conveying and cutting process is protected, and the quality of the cut graphite rod is improved.

4. The material blocking cover is arranged outside the cutting mechanism, and the conventional equipment discharges the fragments of the graphite rod through the adsorption device when processing the fragments, so that the energy input is large, and the cleaning effect is general.

In conclusion, the automatic feeding device has the advantages of continuous and automatic feeding in the machining process, high machining efficiency, better maintenance of the integrity of the graphite rod in the cutting process, automatic collection of machining scraps and the like, and is particularly suitable for the field of advanced inorganic non-metallic materials.

Drawings

The invention is further described below with reference to the accompanying drawings:

FIG. 1 is a schematic structural diagram of a semiconductor graphite rod processing and forming system;

FIG. 2 is an enlarged schematic view at A in FIG. 1;

FIG. 3 is a schematic view of the cutting mechanism;

FIG. 4 is an enlarged view of a ring cutter a, a change cutter b and a ring cutter c;

FIG. 5 is a schematic structural view of the pressing assembly and the pushing assembly;

FIG. 6 is a schematic structural diagram of a transfer assembly;

FIG. 7 is a schematic structural diagram of a pushing assembly;

FIG. 8 is an enlarged schematic view at B of FIG. 7;

FIG. 9 is a schematic structural view of the carrier assembly and guide;

fig. 10 is a schematic structural view of the material blocking cover;

FIG. 11 is a schematic structural view of a feeding assembly;

FIG. 12 is a schematic view of the structure of a spring on a slide bar.

Detailed Description

The technical scheme in the embodiment of the invention is clearly and completely explained by combining the attached drawings.

Example one

Reference will now be made in detail to embodiments of the present invention, examples of which are illustrated in the accompanying drawings, wherein like or similar reference numerals refer to the same or similar elements or elements having the same or similar function throughout. The embodiments described below with reference to the drawings are illustrative and intended to be illustrative of the invention and are not to be construed as limiting the invention.

As shown in fig. 1 to 12, a semiconductor graphite rod processing and forming system includes a base 1, a cutting mechanism 2 and a limiting mechanism 3 are arranged on the base 1, a feeding mechanism 4 is arranged on one side of the base 1, a bearing component 5 is arranged above the feeding mechanism 4, the limiting mechanism 3 includes a pressing component 31 and a poking component 32, the feeding mechanism 4 includes a transmission component 41 and a plurality of pushing components 42, a guide component 6 is arranged on a moving path of the pushing components 42, a material blocking cover 214 is arranged outside the cutting mechanism 2, and a material placing component 7 is arranged above the feeding mechanism 4; discharging assembly 7 transfers graphite rod 10 to carrier assembly 5, carrier assembly 5 is used for accepting graphite rod 10, propelling movement subassembly 42 is under transmission assembly 41's drive with graphite rod 10 on the carrier assembly 5 to the propelling movement of 31 department of pressing, and rotate graphite rod 10 in the propelling movement under the effect of guide 6, it is spacing to press graphite rod 10 to press down pressing assembly 31, it will accomplish spacing graphite rod 10 and stir the transport in to cutting mechanism 2 to dial sending assembly 32, cutting mechanism 2 carries out cutting process to graphite rod 10 surface, dam shield 214 blocks the piece that cutting mechanism 2 was thrown away and collects.

It is worth mentioning that, in this embodiment, a base 1 is provided, a cutting mechanism 2 and a limiting mechanism 3 are provided on the base 1, a feeding mechanism 4 is provided on one side of the base 1, a bearing component 5 is provided above the feeding mechanism 4, a pressing component 31 and a pushing component 32 are provided in the limiting mechanism 3, a transmission component 41 and a plurality of pushing components 42 are provided in the feeding mechanism 4, a guide member 6 is provided on a moving path of the pushing components 42, a material blocking cover 214 is provided outside the cutting mechanism 2, a material placing component 7 is provided above the feeding mechanism 4, the bearing component 5 receives the graphite rod 10 falling from the material placing component 7, the pushing components 42 push the graphite rod 10 on the bearing component 5 to the pressing component 31 under the driving of the transmission component 41, and rotate the graphite rod 10 in pushing under the action of the guide member 6, the pressing component 31 presses and limits the graphite rod 10, dial and send subassembly 32 to accomplish spacing graphite rod 10 and stir the transport in to cutting mechanism 2, cutting mechanism 2 cuts square graphite rod processing into circular graphite rod, keeps off the graphite piece that material cover 214 splashes after will cutting and blocks and collect, and each subassembly is mutually supported and has been solved present graphite rod 10 and can not continuous automatic feeding in the course of working, and machining efficiency is lower, cutting process graphite rod 10 is easy to break and can not collect scheduling problem to the processing piece automatically.

As shown in fig. 3, the cutting mechanism 2 includes a rotating frame 21, a motor a22, a cutting cylinder 23 rotatably disposed on the rotating frame 21, and a plurality of inclined plane grooves 24 arranged in the circumferential direction of the cutting cylinder 23, a feed port 25 and a discharge port 26 are respectively disposed at two ends of the cutting cylinder 23, a cutting ring assembly a27, a cutting ring assembly b28 and a cutting ring assembly c29 are sequentially disposed between the feed port 25 and the discharge port 26, a discharge port 211 is disposed at the outer side of the inclined plane groove 24, a belt 212 is connected between the motor a22 and the cutting cylinder 23, the diameter of the feed port 25 is greater than the diameter of the discharge port 26, the inclined plane groove 24 can rapidly collect chips and discharge the chips from the discharge port 26 when the cutting cylinder 23 rotates, the cleaning efficiency of the chips is improved, and the diameter of the feed port 25 is set to be greater than the diameter of the discharge port 26, so that the graphite rods 10 can be cut and conveyed smoothly, and the breakage of the graphite rods 10 is avoided.

As shown in fig. 4, a plurality of cutters a271, b281 and c291 are respectively arranged on the inner walls of the ring cutter assembly a27, the ring cutter assembly b28 and the ring cutter assembly c29 in the circumferential direction, the length of the cutter a271 is smaller than that of the cutter b281, the length of the cutter b281 is smaller than that of the cutter c291, and the inclined plane edges 213 are respectively arranged on the sides of the cutters a271, b281 and c291 facing the feed hole 25, so that the graphite rod 10 can be cut more accurately when being machined by setting different cutter lengths, and the integrity of the graphite rod 10 can be ensured by the gradual progressive cutting from the outside to the inside.

As shown in fig. 5, the pressing assembly 31 includes a supporting seat 311, a pressing ring 312 disposed on the supporting seat 311, and a feeding inclined plane 313 disposed at one end of the pressing ring 312, wherein the supporting seat 311 is provided with a correction slot 314, the pressing ring 312 is fixedly connected to the supporting seat 311 via a supporting arm 315, and the feeding inclined plane 313 is disposed to make the graphite rod 10 enter the pressing ring 312 more accurately, so as to prevent the graphite rod 10 from colliding with the pressing ring 312.

In addition, this embodiment sets up and presses subassembly 31, be provided with according to ring 312 and correction groove 314 in pressing subassembly 31, in graphite rod 10 to pressing subassembly 31 department transportation process, at first correct graphite rod 10 by correction groove 314, prevent that the flagging earlier of graphite rod 10 one end contacts the cracked condition of supporting seat 311 emergence in transportation process, graphite rod 10 that accomplishes the correction reentrants according to the ring 312 in by pressing the ring to graphite rod 10 spacing, make graphite rod 10 more stable when getting into cutting mechanism 2 and cutting, prevent that whole emergence of graphite rod 10 from rocking leads to the fracture, it still makes things convenient for cutting mechanism 2 to carry out the circumference cutting to graphite rod 10 when having protected carrying cutting in-process graphite rod 10 integrality to set up and presses subassembly 31, the quality of graphite rod 10 after the cutting has been promoted.

In addition, dial and send subassembly 32 including fixed a plurality of rotating seat 321 that set up on supporting seat 311 and rotate and set up the roller 322 of dialling and sending on rotating seat 321, dial and send roller 322 can be very big accelerate graphite rod 10 and carry backward, still avoided graphite rod 10 to take place the dislocation in transportation process when having promoted cutting efficiency.

As shown in fig. 6, the transmission assembly 41 includes a support 411, a motor b412, a chain 413 driven by the motor b412, and a support rail 414 disposed on one side of the chain 413, and the transmission assembly 41 is arranged to drive the pushing assembly 42 to push the graphite rod 10, so that the graphite rod 10 can be continuously conveyed into the cutting mechanism 2, and the processing efficiency of the graphite rod 10 is greatly improved.

As shown in fig. 7 and 8, the pushing assembly 42 includes a pushing arm 421 fixed to the chain 413, a guide rod 422 fixed to one side of the pushing arm 421, a pushing column 423 fixed to the other side of the pushing arm 421, a rotating rod a424, a rotating rod b425, a rotating rod c426 and a rotating rod d427 rotatably provided to the pushing arm 421, a gear a428 and a tapered tooth a429 respectively fixedly provided at both ends of the rotating rod a424, a gear b4211 and a tapered tooth b4212 respectively fixedly provided at one end of the rotating rod b425, a gear c4213 fixedly provided at one end of the rotating rod c426, and a gear d4214 and a rotating disk 4215 respectively fixedly provided at both ends of the rotating rod d427, and a contact surface of the rotating disk 4215 with the graphite rod 10 is a rough surface, so that a friction force when the graphite rod 10 is contacted is increased, and the graphite rod 10 can be rapidly rotated, and a side edge of the graphite rod 10 is brought into contact with the material receiving slope 52 to be conveyed.

As shown in fig. 9, the bearing assembly 5 includes a supporting leg 51 and receiving sloping plates 52 symmetrically disposed on both sides of the supporting leg 51, and both sides are disposed with receiving sloping surfaces 52 to make the graphite rod 10 more stable during transportation.

In addition, the guide member 6 includes a supporting block 61 and a rack 62 having one end fixedly connected to the supporting block 61, and the other end of the supporting block 61 is fixedly connected to the supporting rail 414.

It should be further noted that, in the embodiment, the pushing assembly 42 and the guide 6 are provided, when the gear a428 in the pushing assembly 42 passes through the rack 62 in the guide 6, the gear a428 rotates to drive the bevel gear a429 to rotate synchronously, the bevel gear b4212 drives the gear b4211 to rotate under the cooperation with the bevel gear a429, the gear b4211 drives the gear d4214 to rotate through the gear c4213, so that the rotating disc 4215 rotates along with the gear d4214, the guide 6 is provided on the moving path of the pushing assembly 42, so that the pushing assembly 42 can rotate the graphite rod 10 during pushing the graphite rod 10 on the material receiving sloping plate 52 through the rotating disc 4215, so that the graphite rod 10 can be tightly attached to the material receiving sloping plate 52 at the side edge during the conveying process, the subsequent cutting of the graphite rod 10 is more convenient, compared with the conventional cutting apparatus for graphite rods 10, the pushing assembly 42 and the guide 6 are provided, so that the graphite rod 10 can be continuously conveyed to the cutting mechanism 2, and can adjust the graphite rod 10 angle in transportation process, make graphite rod 10 and connect material swash plate 52 more laminating, still make graphite rod 10 more smooth in transportation process when better having promoted graphite rod 10 cutting process continuity.

As shown in fig. 10, the rotating frame 21 is fixedly provided with a material blocking cover 214, two sides of the rotating frame 21 are provided with material discharge grooves 215, two ends of the material blocking cover 214 are provided with material through holes 216, and the material through holes 216 can ensure smooth conveying of the graphite rod 10.

In addition, the inherent cutting mechanism 2 outside of this embodiment still sets up the striker cover 214, because present equipment is when handling the piece of graphite rod 10, discharge the piece through adsorption equipment, the energy input is great, and the clearance effect is general, consequently, set up striker cover 214 outside cutting section of thick bamboo 23, centrifugal force when rotating through cutting section of thick bamboo 23 throws the piece through discharge gate 211 to the inner wall of striker cover 214 on, collect the clearance from inner wall landing to arranging in the material groove 215 the piece again, compare present clearance mode, it can collect the clearance through centrifugal force and gravity to the piece automatically to set up striker cover 214, and the clearance effect is comparatively ideal.

Example two

As shown in fig. 11 and 12, in which the same or corresponding components as those in the first embodiment are denoted by the same reference numerals as those in the first embodiment, only the points of difference from the first embodiment will be described below for the sake of convenience; the second embodiment is different from the first embodiment in that: the feeding assembly 7 is arranged above the feeding mechanism 4, the feeding assembly 7 comprises a fixing leg 71, a discharging pipe 72 fixedly arranged on the fixing leg 71, a storage hopper 73 fixedly arranged at the upper end of the discharging pipe 72, a chute 74 arranged at the lower end of the discharging pipe 72, a material baffle plate 75 arranged in the chute 74 in a sliding manner, a plurality of sliding rods 76 and a plurality of cams 77 fixedly arranged at two sides of the material baffle plate 75, and springs 78 arranged on the sliding rods 76, wherein the sliding rods 76 are arranged on the fixing leg 71 in a sliding manner.

Here, this embodiment sets up blowing subassembly 7, graphite rod 10 in the blowing pipe 72 is carried out spacing blocking to striker plate 75, when pushing post 423 in the propelling movement subassembly 42 removed cam 77 department on striker plate 75, pushing post 423 outwards passes cam 77, make striker plate 75 also move outwards thereupon, graphite rod 10 that has broken away from striker plate 75 and blockked falls to connecing on the swash plate 52, propelling movement subassembly 42 carries out the propelling movement with graphite rod 10, at the in-process of propelling movement, pushing post 423 stops pushing cam 77 side, cam 77 resets through spring 78, continue spacing blocking to graphite rod 10 in the blowing pipe 72, set up blowing subassembly 7 and realized graphite rod 10's automatic orderly material loading, the artifical participation has been reduced, graphite rod 10 course of working has been promoted.

Working process

Firstly, the transmission assembly 41 drives the pushing assembly 42 to move, when a pushing column 423 in the pushing assembly 42 contacts a cam 77, the cam 77 is pushed outwards, so that a material baffle 75 moves outwards along with the cam 77 to stop limiting the graphite rod 10 in the discharging pipe 72, then the graphite rod 10 falls onto the material receiving sloping plate 52, the pushing assembly 42 conveys the graphite rod 10 on the material receiving sloping plate 52 towards the cutting mechanism 2, meanwhile, a gear a428 in the pushing assembly 42 drives a rotating disc 4215 to rotate through linkage in the process of passing through a rack 62, so that the graphite rod 10 is rotated in the process of pushing the graphite rod 10, the side edge of the graphite rod 10 is attached to the material receiving sloping plate 52, meanwhile, the pushing column 423 is separated from the cam 77, the cam 77 resets through a spring 78, and the graphite rod 10 in the discharging pipe 72 is continuously blocked and limited;

when the pushing assembly 42 pushes the graphite rod 10 to the pressing assembly 31, one end of the graphite rod 10 returns upwards through the correcting groove 314, enters the pressing ring 312 through the feeding inclined plane 313, enters the cutting mechanism 2 through the shifting of the shifting roller 322 for processing, the cutting mechanism 2 comprises a cutting ring assembly a27, a cutting ring assembly b28 and a cutting ring assembly c, the graphite rod 10 is cut from outside to inside step by step, scraps of the graphite rod 10 are gathered in the inclined plane groove 24 through the centrifugal force generated when the cutting cylinder 23 rotates, and then are discharged through the discharge hole, the scraps are blocked by the retaining cover 214 and fall into the discharge groove 215 by means of gravity to complete collection.

In the description of the present invention, it is to be understood that the terms "front-back", "left-right", and the like indicate orientations or positional relationships based on those shown in the drawings, and are only for convenience in describing the present invention and simplifying the description, but do not indicate or imply that the referred device or component must have a specific orientation, be constructed in a specific orientation, and be operated, and thus should not be construed as limiting the invention.

Of course, in this disclosure, those skilled in the art will understand that the terms "a" and "an" should be interpreted as "at least one" or "one or more," i.e., in one embodiment, a number of an element may be one, and in another embodiment, a number of the element may be plural, and the terms "a" and "an" should not be interpreted as limiting the number.

The present invention is not limited to the above-described embodiments, and it should be noted that various changes and modifications can be made by those skilled in the art without departing from the structure of the present invention, and these changes and modifications should be construed as the scope of the present invention, which does not affect the effect and practicality of the present invention.