Sintered carbon rod production device

Abstract

The invention relates to a sintered carbon rod production device which comprises a feeding mechanism, a primary compaction mechanism, a sintering mechanism and a secondary compaction mechanism, the feeding mechanism, the primary compaction mechanism, the sintering mechanism and the secondary compaction mechanism are sequentially arranged, in the secondary compaction mechanism, two orientation plates are arranged on the two sides of a first conveying table at intervals, and the orientation plates are arranged on the two sides of the first conveying table at intervals; the compaction plate moves in the direction close to or away from the orientation plate and can drive the compaction rods to protrude to the outer side of the orientation hole in the orientation plate, so that the compaction rods located on the two sides of the mold move in the opposite directions, the sintered carbon rod sintered in the mold can be compacted again, the density of the sintered carbon rod can be increased, and the sintering quality of the sintered carbon rod is improved. Therefore, the finished product quality of the sintered carbon rod is well ensured.

Description

Technical Field

[0001] The invention relates to the technical field of carbon rod production, and in particular to a sintered carbon rod production device. Background Art

[0002] With the development of water purification technology, people's requirements for the use of drinking water are increasing. Water purifiers are water treatment equipment that deeply filters and purifies water according to the requirements for water use. They can effectively filter out floating objects, heavy metals, bacteria, viruses, residual chlorine, silt, rust and microorganisms in the water.

[0003] The filter element is the main component of the water purifier, and the carbon rod filter element, also known as sintered activated carbon rod, is a new type of deep filter element. In the production process of activated carbon rods, activated carbon particles are usually used as raw materials, and then the granular powder material is filled into the mold, and finally compacted and sintered in the sintered carbon rod production device to obtain an activated carbon rod with a certain strength.

[0004] However, when the existing sintered carbon rod production equipment compacts the activated carbon powder in the mold, uneven compaction is likely to occur, and the activated carbon particles are likely to become bulky under the action of high temperature during sintering, which reduces the density of the prepared activated carbon rod and cannot well guarantee the quality of the finished activated carbon rod. Summary of the invention

[0005] Based on this, it is necessary to provide a sintered carbon rod production device.

[0006] The technical solution of the present invention to solve the above technical problems is as follows: A sintered carbon rod production device comprises: a feeding mechanism, a primary compacting mechanism, a sintering mechanism and a secondary compacting mechanism;

[0007] The feeding mechanism, the primary compacting mechanism and the sintering mechanism are sequentially arranged at intervals;

[0008] The secondary compaction mechanism comprises: a first conveying platform, two directional plates and two compaction plates, wherein the first conveying platform is spaced apart from the sintering mechanism;

[0009] The two directional plates are spaced apart on both sides of the first conveying platform, and each of the directional plates is provided with a plurality of directional holes. Each of the compacting plates moves toward or away from a directional plate, and each of the compacting plates is provided with a plurality of compacting rods. The first end of each compacting rod is connected to the compacting plate, and the second end of each compacting rod is movably inserted into the directional hole, and the second end of each compacting rod at least partially protrudes to the outside of the directional hole.

[0010] In one embodiment, the feeding mechanism includes: a second conveying platform, a storage bin, a lower hopper and a conveying pipe, the second conveying platform is spaced apart from the primary compacting mechanism, the storage bin is arranged on one side of the second conveying platform, the lower hopper is spaced apart from the second conveying platform, the first end of the conveying pipe is connected to the storage bin, the second end of the conveying pipe is connected to the lower hopper, the first surface of the storage bin is provided with a storage trough, the first surface of the lower hopper is provided with a feeding trough, the second surface of the lower hopper is provided with a feeding hole, the feeding hole is connected with the feeding trough, the conveying pipe has a tube cavity, and the tube cavity is respectively connected with the storage trough and the feeding trough, and a conveying screw is rotatably arranged in the tube cavity.

[0011] In one embodiment, the primary compaction mechanism includes: a first support frame, a first elastic member, a third conveying platform and a vibration motor, wherein the first end of the first elastic member is connected to the first end of the first support frame, the second end of the first elastic member is connected to the first surface of the third conveying platform, the first end of the third conveying platform is spaced apart from the second conveying platform, the second end of the third conveying platform is spaced apart from the sintering mechanism, and the vibration motor is disposed on the first surface of the third conveying platform, and the vibration motor is used to drive the third conveying platform to vibrate.

[0012] In one embodiment, the sintering mechanism includes: a fourth conveying platform, a sintering box and a heating element. The first end of the fourth conveying platform is spaced apart from the second end of the third conveying platform, and the second end of the fourth conveying platform is spaced apart from the first conveying platform. The sintering box is arranged on the fourth conveying platform, a sintering cavity is formed in the sintering box, and the heating element is arranged on the side wall of the sintering cavity.

[0013] In one embodiment, the feeding mechanism further includes: a discharge pipe, which is connected to the second surface of the discharge hopper and communicates with the discharge hole.

[0014] In one embodiment, a vibration groove is formed on the second surface of the third conveying platform.

[0015] In one embodiment, the sintering mechanism further includes: two first curtains and two second curtains, a feed port and a discharge port are respectively provided at both ends of the sintering box body, the feed port and the discharge port are respectively connected to the sintering chamber, the two first curtains are arranged on the side wall of the first end of the sintering chamber at intervals, and the two first curtains are used to movably close the feed port, and the two second curtains are arranged on the side wall of the second end of the sintering chamber at intervals, and the two second curtains are used to movably close the discharge port.

[0016] In one embodiment, each of the first baffles includes a first mounting plate and a plurality of first baffles, the first mounting plate is connected to the side wall of the first end of the sintering chamber, and the first baffles are arranged on the first mounting plate at intervals from each other.

[0017] In one embodiment, each of the second baffles includes a second mounting plate and a plurality of second baffles, the second mounting plate is connected to the side wall of the second end of the sintering chamber, and the second baffles are arranged on the second mounting plate at intervals from each other.

[0018] In one embodiment, the secondary compaction mechanism also includes: two first cylinders, two second cylinders, two first limit rods and two second limit rods, the two first cylinders and the two second cylinders are respectively distributed on both sides of the first conveying platform, each first cylinder is spaced apart from a second cylinder, the two first limit rods and the two second limit rods are respectively rotatably arranged on both sides of the first conveying platform, each first limit rod is spaced apart from a second limit rod, the output end of each first cylinder is rotatably connected to the first end of a first limit rod, the output end of each second cylinder is rotatably connected to the first end of a second limit rod, the first cylinder drives the first limit rod to rotate onto the first conveying platform, the second cylinder drives the second limit rod to rotate onto the first conveying platform, and the first limit rods and the second limit rods are spaced apart to form a clamping area.

[0019] The beneficial effects of the present invention are as follows: a sintered carbon rod production device provided by the present invention is provided with a feeding mechanism, a primary compacting mechanism, a sintering mechanism and a secondary compacting mechanism in sequence. In the secondary compacting mechanism, two oriented plates are spaced apart on both sides of the first conveyor platform. The compacting plates move towards or away from the oriented plates, which can drive the compacting rods to protrude to the outside of the oriented holes on the oriented plates. In this way, the compacting rods on both sides of the mold move toward each other, which can re-compact the sintered carbon rods in the mold, increase the density of the sintered carbon rods, and thus well ensure the finished product quality of the sintered carbon rods. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 A schematic structural diagram of a sintered carbon rod production device according to an embodiment of the present invention;

[0021] Figure 2 It is a structural schematic diagram of a feeding mechanism according to an embodiment of the present invention;

[0022] Figure 3 A cross-sectional view of a second conveying platform and a mold according to an embodiment of the present invention;

[0023] Figure 4A schematic structural diagram of a primary compaction mechanism according to an embodiment of the present invention;

[0024] Figure 5 A schematic structural diagram of a sintering mechanism according to an embodiment of the present invention;

[0025] Figure 6 A schematic structural diagram of a sintering mechanism according to an embodiment of the present invention;

[0026] Figure 7 It is a structural schematic diagram of a secondary compaction mechanism according to an embodiment of the present invention;

[0027] Figure 8 A schematic structural diagram of a first conveying platform according to an embodiment of the present invention;

[0028] Fig. 9 A schematic diagram of the structure of a flipping mechanism according to an embodiment of the present invention;

[0029] Fig.10 It is a structural schematic diagram of a first demoulding mechanism according to an embodiment of the present invention;

[0030] Fig.11 It is a structural schematic diagram of a second demoulding mechanism according to an embodiment of the present invention;

[0031] Fig.12 The figure is a schematic structural diagram of a first demoulding mechanism and a second demoulding mechanism according to an embodiment of the present invention.

[0032] In the attached drawings, 100, feeding mechanism; 110, second conveying platform; 120, storage bin; 121, storage trough; 130, lower hopper; 131, feed trough; 140, conveying pipe; 150, vacuum pump; 160, suction nozzle; 200, primary compaction mechanism; 210, first support frame; 220, third conveying platform; 221, vibration trough; 230, first elastic member; 240, vibration motor; 300, sintering mechanism; 310, fourth conveying platform; 320, sintering box; 321, sintering chamber; 330, Inspection door; 340, first curtain; 341, first mounting plate; 342, first stop bar; 350, second curtain; 351, second mounting plate; 352, second stop bar; 400, secondary compaction mechanism; 410, first conveyor platform; 420, directional plate; 421, directional hole; 430, compaction plate; 440, compaction rod; 450, first mounting seat; 460, connecting rod; 470, first cylinder; 471, first limit rod; 480, second cylinder; 481, second limit rod; 510, bottom plate; 511, positioning ring; 512, first air extraction hole; 520, material loading cylinder; 530, shaping cylinder; 531, air extraction cavity; 532, second air extraction hole; 540, material loading space; 600, turning mechanism; 610, second support frame; 620, first turning frame; 630, second turning frame; 640, rotating rod; 700, first demoulding mechanism; 710, sixth conveying platform; 720, second sliding seat; 730, third elastic member; 740, first side plate; 741, first limit plate; 742, The first limiting ring; 750, the first guide plate; 760, the first demoulding plate; 761, the first demoulding rod; 762, the first ejector block; 770, the second mounting seat; 780, the first guide rod; 800, the second demoulding mechanism; 810, the seventh conveying platform; 820, the third sliding seat; 830, the second side plate; 831, the second demoulding hole; 840, the second guide plate; 850, the second demoulding plate; 851, the second demoulding rod; 852, the second ejector block; 860, the third mounting seat; 870, the second guide rod. DETAILED DESCRIPTION

[0033] In order to facilitate the understanding of the present invention, the present invention will be described more fully below with reference to the relevant drawings. The preferred embodiments of the present invention are given in the drawings. However, the present invention can be implemented in many different forms and is not limited to the embodiments described herein. On the contrary, the purpose of providing these embodiments is to make the disclosure of the present invention more thoroughly understood.

[0034] It should be noted that when an element is referred to as being "fixed to" another element, it may be directly on the other element or there may be a central element. When an element is considered to be "connected to" another element, it may be directly connected to the other element or there may be a central element at the same time. The terms "vertical", "horizontal", "left", "right" and similar expressions used herein are for illustrative purposes only and do not represent the only implementation method.

[0035] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as those commonly understood by those skilled in the art of the present invention. The terms used herein in the specification of the present invention are only for the purpose of describing specific embodiments and are not intended to limit the present invention. The term "and / or" used herein includes any and all combinations of one or more related listed items.

[0036] In one embodiment, Figure 1 and Figure 7 As shown, a sintered carbon rod production device includes: a feeding mechanism 100, a primary compacting mechanism 200, a sintering mechanism 300 and a secondary compacting mechanism 400; the feeding mechanism 100, the primary compacting mechanism 200 and the sintering mechanism 300 are arranged in sequence; the secondary compacting mechanism 400 includes: a first conveying platform 410, two directional plates 420 and two compacting plates 430, the first conveying platform 410 is arranged at a distance from the sintering mechanism 300; the two directional plates 420 are arranged at a distance from the first conveying platform 410 and the second compacting plates 430. On both sides of a conveying platform 410, each of the directional plates 420 is provided with a plurality of directional holes 421, and each of the compacting plates 430 moves in a direction close to or away from the directional plate 420. Each of the compacting plates 430 is provided with a plurality of compacting rods 440, and the first end of each of the compacting rods 440 is connected to the compacting plate 430, and the second end of each of the compacting rods 440 is movably inserted into the directional hole 421, and the second end of each of the compacting rods 440 at least partially protrudes to the outside of the directional hole 421.

[0037] In this embodiment, the feeding mechanism 100, the primary compacting mechanism 200, the sintering mechanism 300 and the secondary compacting mechanism 400 are arranged in sequence, that is, the activated carbon powder is filled into the mold in the feeding mechanism 100, the activated carbon powder in the mold is compacted for the first time in the primary compacting mechanism 200, and then the activated carbon powder in the mold is sintered in the sintering mechanism 300, so that the surface of the activated carbon powder is slightly melted, and finally in the secondary compacting mechanism 400, since the two directional plates 420 are arranged at intervals on both sides of the first conveying platform 410, the compacting plate 430 moves in a direction close to or away from the directional plate 420, which can drive the compacting rod 440 to protrude to the outside of the directional hole 421 on the directional plate 420, and the directional hole 421 can play a guiding role. In this way, the compacting rods 440 on both sides of the mold move toward each other, which can accurately compact the sintered carbon rod after sintering in the mold again, and can increase the density of the sintered carbon rod, thereby well ensuring the finished product quality of the sintered carbon rod.

[0038] In one embodiment, Figure 2 As shown, the feeding mechanism 100 includes: a second conveying platform 110, a storage bin 120, a lower hopper 130 and a conveying pipe 140, the second conveying platform 110 is spaced apart from the primary compacting mechanism 200, the storage bin 120 is arranged on one side of the second conveying platform 110, the lower hopper 130 is spaced apart from the second conveying platform 110, the first end of the conveying pipe 140 is connected to the storage bin 120, the second end of the conveying pipe 140 is connected to the lower hopper 130, the first surface of the storage bin 120 is provided with a storage trough 121, the first surface of the lower hopper 130 is provided with a feeding trough 131, the second surface of the lower hopper 130 is provided with a feeding hole, the feeding hole is communicated with the feeding trough 131, the conveying pipe 140 has a tube cavity, and the tube cavity is respectively communicated with the storage trough 121 and the feeding trough 131, and a conveying screw is rotatably arranged in the tube cavity.

[0039] In the present embodiment, the storage bin 120 is a bin-shaped structure having a storage trough 121, which can be used to accommodate and store activated carbon powder. The storage bin 120 and the second conveying platform 110 are arranged to be spaced apart from each other on the left and right sides. The lower hopper 130 is a bucket-shaped structure having a feed trough 131. The lower hopper 130 and the second conveying platform 110 are arranged to be spaced apart from each other up and down. The second side of the lower hopper 130 is a side facing the second conveying platform 110. The conveying pipe 140 is arranged to be inclined upward, and the first end and the second end of the conveying pipe 140 are respectively connected to the storage bin 120 and the lower hopper. The side wall of the hopper 130 is connected, and then the conveying screw is rotated and set in the tube cavity of the conveying pipe 140, and the conveying screw is at least partially protruded and set in the storage tank 121. The conveying screw rotates in a directional manner to generate a directional conveying force, so that the activated carbon powder in the storage bin 120 is upwardly conveyed to the feeding tank 131. The first surface and the second surface of the lower hopper 130 are arranged opposite to each other, and finally, through the discharge hole on the second surface of the lower hopper 130, the activated carbon powder can be guided into the mold on the second conveying platform 110 for subsequent compaction process. In this way, the dust can be avoided during the feeding process by conveying through the pipeline.

[0040] In one embodiment, a baffle is provided on the first surface of the storage bin 120, a first side of the baffle is connected to the first surface of the storage bin 120, and a second side of the baffle is gradually inclined toward the bottom of the storage bin 120. Specifically, the baffle is arranged around the side walls of the first surface of the storage bin 120, and the baffle is inclined toward the bottom of the storage bin 120, so that it can cover the top of the storage tank 121, and can play a certain dust-blocking role, which is helpful to prevent dust when adding activated carbon powder into the storage tank 121.

[0041] In one embodiment, the feeding mechanism 100 further includes: a discharge pipe, which is connected to the second surface of the discharge hopper 130 and communicates with the discharge hole. Specifically, by providing a discharge pipe, it is convenient to centrally discharge the activated carbon powder. The activated carbon powder is centrally discharged through the discharge pipe, which can further avoid the generation of dust. In this embodiment, a valve is provided on the discharge pipe to control whether the activated carbon powder is discharged or not, and automatic discharge and stop of discharge can be realized.

[0042] In one embodiment, Figure 3As shown, the mold includes: a bottom plate 510, a material loading cylinder 520 and a shaping cylinder 530, the bottom plate 510 is provided with a positioning ring 511, the material loading cylinder 520 is provided with a placement cavity inside, the side wall of the first end of the placement cavity is movably abutted with the outer side wall of the positioning ring 511, the shaping cylinder 530 is located in the placement cavity, and the outer surface of the first end of the shaping cylinder 530 is movably abutted with the inner side wall of the positioning ring 511, the outer surface of the shaping cylinder 530 and the side wall of the placement cavity are spaced to form a material loading space 540, the shaping cylinder 530 is provided with an exhaust cavity 531 inside, the bottom plate 510 is provided with a first exhaust hole 512, and the side wall of the exhaust cavity 531 is provided with a plurality of second exhaust holes 532. The first air suction hole 512 is connected with the air suction cavity 531 and each of the second air suction holes 532 in sequence. An air suction pump 150 and a suction nozzle 160 are provided on the second conveying platform 110. The air suction pump 150 is drivingly connected to the suction nozzle 160. The suction nozzle 160 is used to align with the first air suction hole 512. In this way, when the lower hopper 130 fills the activated carbon powder into the mold, the air suction pump 150 drives the suction nozzle 160 to suck air into the air suction cavity 531, so that the air in the material loading space 540 can be sucked out, and negative pressure is formed in the material loading space 540 to generate suction. In this way, the dust generated during loading can be sucked into the material loading space 540, and dust can be avoided during the loading process. At the same time, the suction generated is conducive to quickly filling the activated carbon powder into the loading mold.

[0043] In one embodiment, Figure 4As shown, the primary compaction mechanism 200 includes: a first support frame 210, a first elastic member 230, a third conveying platform 220 and a vibration motor 240, the first end of the first elastic member 230 is connected to the first end of the first support frame 210, the second end of the first elastic member 230 is connected to the first surface of the third conveying platform 220, the first end of the third conveying platform 220 is spaced apart from the second conveying platform 110, the second end of the third conveying platform 220 is spaced apart from the sintering mechanism 300, the vibration motor 240 is arranged on the first surface of the third conveying platform 220, and the vibration motor 240 is used to drive the third conveying platform 220 to vibrate. Specifically, the first support frame 210 is a square frame structure, which can play a supporting and installing role. The third conveyor platform 220 is installed on the first support frame 210 through the first elastic member 230. For example, the first elastic member 230 is a spring. There is a certain elasticity between the third conveyor platform 220 and the first support frame 210, which can make the third conveyor platform 220 vibrate under the action of the vibration motor 240, so that the mold placed on the third conveyor platform 220 can be vibrated, and then the activated carbon powder in the mold can be vibrated and compacted, which can realize automatic vibration compaction of the activated carbon powder and ensure that the activated carbon powder in the mold is evenly compacted.

[0044] In one embodiment, Figure 4 As shown, a vibration groove 221 is provided on the second surface of the third conveying platform 220. Specifically, the vibration groove 221 is used to place the mold to be vibrated and compacted with activated carbon powder, and the vibration groove 221 is arranged through the first end and the second end of the third conveying platform 220, which is conducive to the mold containing activated carbon powder to be introduced and exported from the first end and the second end of the third conveying platform 220 respectively, and is convenient for the normal transportation of the mold containing activated carbon powder.

[0045] In one embodiment, Figure 5As shown, the sintering mechanism 300 includes: a fourth conveying platform 310, a sintering box 320 and a heating element. The first end of the fourth conveying platform 310 is spaced apart from the second end of the third conveying platform 220, the second end of the fourth conveying platform 310 is spaced apart from the first end of the first conveying platform 410, the sintering box 320 is disposed on the fourth conveying platform 310, the sintering box 320 is provided with a sintering cavity 321, and the heating element is disposed on the side wall of the sintering cavity 321. Specifically, the sintering box 320 is a hollow box structure having a sintering cavity 321, the sintering cavity 321 is formed between the sintering box 320 and the fourth conveying platform 310, the number of the heating elements is set to be multiple, and each heating element is evenly distributed on the side wall of the sintering cavity 321 facing the fourth conveying platform 310, for example, the heating element is a heating wire, the structure is simple, and the heating efficiency is good. In this way, the mold filled with activated carbon powder is transported from the fourth conveying platform 310 to the sintering chamber 321 , and each heating element is energized to generate heat to perform high-temperature sintering on the activated carbon powder in the mold on the fourth conveying platform 310 .

[0046] In one embodiment, Figure 5 As shown, the sintering mechanism 300 also includes: an inspection door 330, an inspection port is opened on the sintering box body 320, and the inspection port is connected to the sintering chamber 321. The inspection door 330 is rotatably set on the sintering box body 320, and the inspection door 330 is used to movably close the inspection port. In this way, by opening the inspection door 330, the heating element in the sintering chamber 321 can be repaired or replaced.

[0047] In one embodiment, a first mounting port is provided on the sintering box body, a first fan is arranged in the first mounting port, and the first mounting port is connected to the sintering chamber, so that the first fan blows air into the sintering chamber, which can drive the air flow in the sintering chamber, so that the heat generated by the heating element is evenly distributed in the sintering chamber, thereby being able to more evenly perform high-temperature sintering on the activated carbon powder in the mold on the fourth conveying platform.

[0048] In one embodiment, Figure 6As shown, the sintering mechanism 300 also includes: two first curtains 340 and two second curtains 350, a feed port and a discharge port are respectively opened at both ends of the sintering box body 320, the feed port and the discharge port are respectively connected to the sintering chamber 321, the two first curtains 340 are arranged on the side wall of the first end of the sintering chamber 321 at intervals, and the two first curtains 340 are used to movably close the feed port, the two second curtains 350 are arranged on the side wall of the second end of the sintering chamber 321 at intervals, and the two second curtains 350 are used to movably close the discharge port. Specifically, the sintering chamber 321 is arranged through both ends of the sintering box 320, and a feed port and a discharge port are formed at both ends of the sintering box 320, so that when the mold filled with activated carbon powder is transported on the fourth conveying platform 310, it can enter the sintering chamber 321 through the feed port for sintering, and then be sent out through the discharge port to complete the sintering. Each first curtain 340 and each second curtain 350 are made of flexible materials, that is, the first curtain 340 and the second curtain 350 are both flexible curtains. Each first curtain 340 and each second curtain 350 can be deformed under the action of external force. The mold filled with activated carbon powder can push each first curtain 340 and each second curtain 350 to pass through the feed port and the discharge port. The two first curtains 340 block the feed port, and the two second curtains 350 block the discharge port. The sintering chamber 321 can be separated from the external environment, which can greatly reduce the heat loss inside the sintering chamber 321, thereby greatly improving the sintering efficiency.

[0049] In one embodiment, Figure 6 As shown, each of the first curtains 340 includes a first mounting plate 341 and a plurality of first bars 342. The first mounting plate 341 is connected to the side wall of the first end of the sintering chamber 321, and the first bars 342 are arranged on the first mounting plate 341 at intervals. Specifically, the first mounting plate 341 is installed on the top side wall of the first end of the sintering chamber 321, and the first bars 342 are connected to the first mounting plate 341 and arranged perpendicular to the bottom of the sintering chamber 321. The first bars 342 are made of flexible material to form a curtain structure with multiple bars, so that the mold can push open the first curtains 340 to ensure normal conveying.

[0050] In one embodiment, each of the first curtains 340 further includes: a plurality of third bars, each of which is connected to the first mounting plate 341, each of which is spaced apart from each other, and each of which is staggered with each of the first bars 342. Specifically, by providing the third bars, and the third bars and the first bars 342 are arranged parallel to each other, each of the first bars 342 forms a first layer of curtain structure, each of the third bars forms a second layer of curtain structure, and each of the first bars 342 and each of the third bars are staggered and overlapped with each other, the gap can be further shielded, thereby further preventing the loss of heat inside the sintering chamber 321, and further improving the sintering efficiency.

[0051] In one embodiment, Figure 6 As shown, each of the second curtains 350 includes a second mounting plate 351 and a plurality of second bars 352. The second mounting plate 351 is connected to the side wall of the second end of the sintering chamber 321, and the second bars 352 are arranged on the second mounting plate 351 at intervals. Specifically, the second mounting plate 351 is mounted on the top side wall of the second end of the sintering chamber 321, and the second bars 352 are connected to the second mounting plate 351 and arranged perpendicular to the bottom of the sintering chamber 321. The second bars 352 are made of flexible material to form a curtain structure with multiple bars, so that the mold can push open the second curtains 350 to ensure normal conveying.

[0052] In one embodiment, each of the second curtains 350 further includes: a plurality of fourth bars, each of which is connected to the second mounting plate 351, each of which is spaced apart from each other, and each of which is staggered with each of the second bars 352. Specifically, by providing the fourth bars, and the fourth bars and the second bars 352 are arranged in parallel with each other, each of the second bars 352 forms a first layer of curtain structure, each of the fourth bars forms a second layer of curtain structure, and each of the second bars 352 and each of the fourth bars are staggered and overlapped with each other, the gap can be further shielded, thereby further preventing the loss of heat inside the sintering chamber 321, and further improving the sintering efficiency.

[0053] In one embodiment, Fig. 9As shown, the sintered carbon rod production device also includes: a flipping mechanism 600, the flipping mechanism 600 includes: a second support frame 610, a first flip frame 620, a second flip frame 630 and a rotating rod 640, the first end of the second support frame 610 is spaced apart from the second end of the third conveyor platform 220, the second end of the second support frame 610 is spaced apart from the first end of the fourth conveyor platform 310, the first flip frame 620 and the second flip frame 630 are vertically arranged, the first end of the first flip frame 620 is connected to the first end of the second flip frame 630, the rotating rod 640 is rotatably arranged on the second support frame 610, the rotating rod 640 is connected to the first end of the second flip frame 630, the second end of the first flip frame 620 is movably abutted against the first end of the second support frame 610, and the second end of the second flip frame 630 is movably abutted against the second end of the second support frame 610. Specifically, the first end of the first flip frame 620 is vertically connected to the first end of the second flip frame 630. When the second end of the first flip frame 620 abuts against the first end of the second support frame 610, the second end of the second flip frame 630 is away from the second end of the second support frame 610. When the second end of the second flip frame 630 abuts against the second end of the second support frame 610, the second end of the first flip frame 620 is away from the first end of the second support frame 610. In this way, when the mold filled with activated carbon powder needs to be flipped, the rotating rod 640 is driven to rotate The second end of the first flip frame 620 is abutted against the first end of the second support frame 610, and the mold containing activated carbon powder is transferred to the first flip frame 620. Then, the rotating rod 640 is driven to rotate again, driving the first flip frame 620 and the second flip frame 630 to rotate until the second end of the second flip frame 630 abuts against the second end of the second support frame 610. This completes the flipping of the mold containing activated carbon powder, that is, the mold containing activated carbon powder is flipped 90 degrees as a whole, and then transferred to the fourth conveying platform 310 for sintering.

[0054] It is worth noting that after the mold containing activated carbon powder is compacted once, the mold containing activated carbon powder is flipped, that is, the material loading cylinder 520 is placed horizontally, which can increase the sintering area of ​​the activated carbon powder in the mold and enable better sintering. At the same time, the horizontally placed material loading cylinder 520 facilitates the compacting rods 440 located on both sides of the mold to move toward each other, so as to compact the sintered carbon rods in the mold again.

[0055] In one embodiment, Figure 7 and Figure 8As shown, the secondary compaction mechanism 400 further includes: two first cylinders 470, two second cylinders 480, two first limiting rods 471 and two second limiting rods 481, the two first cylinders 470 and the two second cylinders 480 are respectively spaced apart on both sides of the first conveying platform 410, each of the first cylinders 470 is spaced apart from a second cylinder 480, the two first limiting rods 471 and the two second limiting rods 481 are respectively rotatably disposed on both sides of the first conveying platform 410, each of the first limiting rods 471 is spaced apart from a second cylinder 480, The second limiting rods 481 are arranged at intervals, and the output end of each of the first cylinders 470 is rotatably connected to the first end of a first limiting rod 471, and the output end of each of the second cylinders 480 is rotatably connected to the first end of a second limiting rod 481. The first cylinder 470 drives the first limiting rod 471 to rotate onto the first conveying platform 410, and the second cylinder 480 drives the second limiting rod 481 to rotate onto the first conveying platform 410, and a clamping area is formed between each of the first limiting rods 471 and each of the second limiting rods 481.

[0056] In this embodiment, the first first cylinder 470 is located on the first side of the first conveying platform 410, and the second first cylinder 470 is located on the second side of the first conveying platform 410. Correspondingly, the two second cylinders 480 are spaced apart on both sides of the first conveying platform 410. When the output end of the first cylinder 470 is extended or retracted, the first limiting rod 471 can be driven to rotate, and when the output end of the second cylinder 480 is extended or retracted, the second limiting rod 481 can be driven to rotate, so that a square clamping area is formed between each first limiting rod 471 and each second limiting rod 481. In this way, when the mold filled with activated carbon powder is transported to the first conveying platform 410 after sintering, the first cylinder 470 drives the first limiting rod 471 to rotate until the first limiting rod 471 abuts against one side of the mold, and the second cylinder 480 drives the second limiting rod 481 to rotate until the second limiting rod 481 abuts against the other side of the mold. In this way, the mold can be limited, thereby playing a positioning role, which facilitates the alignment of each compacting rod 440 on the compacting plate 430 with the material loading cylinder 520 for secondary compaction. It is worth noting that during sintering, the surface of the activated carbon particles is slightly melted under the action of high temperature, and it is easy to become bulky. Once again compacting can make the connection between the activated carbon particles more tightly, thereby further improving the density of the sintered carbon rod, so that the sintered carbon rod has a better finished product quality.

[0057] In one embodiment, Figure 7As shown, the secondary compaction mechanism 400 also includes: two first mounting seats 450, each of the first mounting seats 450 is spaced apart from one of the oriented plates 420, each of the first mounting seats 450 is provided with a guide rod, the first end of the guide rod is connected to the first mounting seat 450, the second end of the guide rod is connected to the oriented plate 420, a first connecting hole is opened on the compaction plate 430, the compaction plate 430 is sleeved on the guide rod through the first connecting hole, and the side wall of the first connecting hole is movably abutted against the guide rod. Specifically, two first mounting seats 450 are arranged at intervals on both sides of the first conveying platform 410, and each first mounting seat 450 is arranged at intervals with a directional plate 420. A plurality of guide rods are arranged on each first mounting seat 450. For example, the number of guide rods is set to four, the number of first connecting holes is equal to the number of guide rods, the first ends of the four guide rods are evenly distributed at the four corners on the first mounting seat 450, the second ends of the four guide rods are evenly distributed at the four corners on the directional plate 420, the four guide rods are arranged parallel to each other, the compaction plate 430 is mounted on the guide rods through the four first connecting holes, and can slide on the four guide rods, so that it can play the role of guiding and limiting, the compaction plate 430 can move more smoothly in the direction of approaching or moving away from the directional plate 420, and can drive the compaction rod 440 for compaction more smoothly.

[0058] In one embodiment, Figure 7 As shown, a connecting rod 460 is provided between the first mounting seat 450 and the oriented plate 420, a first end of the connecting rod 460 is connected to the first mounting seat 450, and a second end of the connecting rod 460 is connected to the oriented plate 420. Specifically, the number of connecting rods 460 can be set to be multiple, each connecting rod 460 is connected between the first mounting seat 450 and the oriented plate 420, so that the first mounting seat 450 and the oriented plate 420 can be connected together, making the structure of the first mounting seat 450 and the oriented plate 420 more stable.

[0059] In one embodiment, the secondary compaction mechanism also includes: a first sliding seat, a first sliding rail is provided on the first sliding seat, a first sliding block is provided on the first conveying platform, the first sliding block is slidably arranged on the first sliding rail, and the first conveying platform moves in a direction close to or away from one of the oriented plates, and a second elastic member is arranged on each of the oriented plates, the first end of the second elastic member is connected to the oriented plate, and the second end of the second elastic member is connected to the first sliding seat. In this way, the first compaction plate first moves in a direction close to the first oriented plate, which can drive the compaction rod to protrude to the outside of the oriented hole on the first oriented plate and act on the sintered charcoal rod in the mold. Since the first conveying platform is slidably arranged on the first sliding seat, the first conveying platform on which the mold is placed is correspondingly forced to slide on the first sliding seat in a direction close to the second oriented plate, which can alleviate the force acting on the mold on the first conveying platform, that is, by translating left and right. The second elastic member is connected with the directional plate and the first sliding seat respectively, and the second elastic member is a spring, which can further play a buffering role until the first conveying platform abuts against the second directional plate. At this time, the second elastic member connected with the first directional plate is in a stretched state, and the second elastic member connected with the second directional plate is in a compressed state. The directional hole on the second directional plate is aligned with the material loading cylinder in the mold, that is, the compacting rod on the second compacting plate is aligned with the material loading cylinder in the mold, and then the compacting rod on the second compacting plate moves forward to compact the sintered carbon rod in the mold for the second time, so that the sintered carbon rod in the mold can be compacted for the second time smoothly. After the secondary compaction is completed, the compacting plate moves away from the directional plate, so that the compacting rod moves backward away from the mold. Under the action of the second elastic member, the first conveying platform can automatically reset.

[0060] In one embodiment, the sintered carbon rod production device also includes: a cooling mechanism, which includes: a fifth conveyor platform, a cooling box, a second fan and an exhaust fan, the cooling box is provided with a cooling cavity, the fifth conveyor platform is arranged in the cooling cavity, the first end of the fifth conveyor platform is spaced apart from the second end of the first conveyor platform, a second mounting port is provided on the first side of the cooling box, the exhaust fan is arranged in the second mounting port, a third mounting port is provided on the second side of the cooling box, and the second fan is arranged in the third mounting port. Specifically, after the sintered carbon rods in the mold are compacted for the second time, the sintered carbon rods in the mold need to be cooled. The cooling box is a hollow box structure with a cooling cavity. The two ends of the fifth conveying platform are respectively connected to the side walls of the two ends of the cooling cavity, and the second mounting port and the third mounting port are both connected to the cooling cavity. The exhaust fan is located above the fifth conveying platform, and the second fan is located below the fifth conveying platform, that is, the fifth conveying platform is located between the exhaust fan and the second fan. In this way, air is blown into the cooling cavity by the second fan, and the exhaust fan discharges the air in the cooling cavity to the outside, so as to quickly cool the sintered carbon rod in the mold on the fifth conveying platform.

[0061] In one embodiment, Fig.10 and Fig.12 As shown, the sintered carbon rod production device also includes: a first demolding mechanism 700, the first demolding mechanism 700 includes: a sixth conveying platform 710, a second sliding seat 720, a third elastic member 730, a first side plate 740, a first guide plate 750 and a first demolding plate 760, the first side plate 740 and the first guide plate 750 are spaced apart on both sides of the second sliding seat 720, the first side plate 740 is provided with a first demolding hole, the sixth conveying platform 710 is slidably provided on the second sliding seat 720, and the sixth conveying platform 710 moves in a direction close to or away from the first side plate 740, and the first guide plate 750 is provided with a first demolding hole. A first guide hole is provided, and the first demoulding plate 760 moves in a direction close to or away from the first guide plate 750. A first demoulding rod 761 is provided on the first demoulding plate 760. The first end of the first demoulding rod 761 is connected to the first demoulding plate 760, and the second end of the first demoulding rod 761 is movably inserted in the first guide hole and at least partially protrudes to the outside of the first guide hole. A first ejection block 762 is provided on the second end of the first demoulding rod 761; the first end of the third elastic member 730 is connected to the first guide plate 750, and the second end of the third elastic member 730 is connected to the first side of the second sliding seat 720.

[0062] In this embodiment, the first end of the sixth conveyor platform 710 is spaced apart from the second end of the fifth conveyor platform, the first side plate 740 and the first guide plate 750 are spaced apart on both sides of the second sliding seat 720, and the first demolding plate 760 moves in a direction close to or away from the first guide plate 750, so that the first demolding rod 761 can be driven to further protrude to the outside of the first guide hole on the first guide plate 750, thereby driving the first ejection block 762 on the first demolding rod 761 to move forward to demold the sintered carbon rod. In this way, when the first ejection block 762 on the first demolding rod 761 moves forward to demold the sintered carbon rod in the mold, the first ejection block 762 acts on the sintered carbon rod in the mold. Since the sixth conveyor platform 710 is slidably arranged on the second sliding seat 720, the sixth conveyor platform 710 on which the mold is placed is correspondingly forced to slide on the second sliding seat 720 to move in a direction close to the first side plate 740, which can alleviate the force on the mold on the sixth conveyor platform 710, that is, buffer it by means of left and right translation, thereby preventing the mold on the sixth conveyor platform 710 from deflecting or tipping over, and cooperating with the two ends of the third elastic member 730 to be respectively connected to the first guide plate 750 and the second sliding seat The seat 720 is connected, and the third elastic member 730 is a spring, which can further play a buffering role until the sixth conveying platform 710 abuts against the first side plate 740. At this time, the third elastic member 730 is in a stretched state, and the sintered carbon rod in the mold is aligned with the first demolding hole on the first side plate 740, and then the first ejection block 762 continues to move forward to eject the sintered carbon rod in the mold, so that the sintered carbon rod in the mold can be smoothly demolded. Finally, after the demolding is completed, the first demolding plate 760 moves away from the first guide plate 750, so that the first ejection block 762 moves backward away from the mold, and under the action of the third elastic member 730, the sixth conveying platform 710 can automatically reset.

[0063] In one embodiment, Fig.10As shown, the first demoulding mechanism 700 also includes: a first limiting plate 741, the first limiting plate 741 is movably arranged on the first side plate 740, the first limiting plate 741 is provided with a first limiting ring 742, and the first limiting ring 742 is aligned with and connected to the first demoulding hole. Specifically, when the sixth conveying platform 710 abuts against the first side plate 740, the material loading cylinder on the mold located on the sixth conveying platform 710 is embedded in the first limiting ring 742, that is, the outer surface of the material loading cylinder is movably abutted against the inner side wall of the first limiting ring 742, which can play a limiting role, so that the sintered carbon rod in the material loading cylinder is aligned with the first demoulding hole, and the width of the through hole in the first limiting ring 742 is adapted to the width of the sintered carbon rod, so that it can be better ejected from the first demoulding hole. At the same time, the first limiting plate 741 is detachably arranged on the first side plate 740. By replacing the first limiting plate 741, the specifications of the first limiting ring 742 can be changed to adapt to material loading cylinders of different specifications on the mold, that is, it can adapt to the limiting requirements when demolding sintered carbon rods of different specifications. The first ejection block 762 is threadedly connected to the second end of the first demolding rod 761. By replacing the first ejection blocks 762 of different specifications, it can adapt to material loading cylinders of different specifications on different molds, that is, sintered carbon rods of different specifications can be ejected from the material loading cylinder.

[0064] In one embodiment, Fig.10 As shown, the first demolding mechanism 700 also includes: a second mounting seat 770, the second mounting seat 770 is spaced apart from the first guide plate 750, a first guide rod 780 is arranged on the second mounting seat 770, a first end of the first guide rod 780 is connected to the second mounting seat 770, a second end of the first guide rod 780 is connected to the first guide plate 750, a second connecting hole is opened on the first demolding plate 760, the first demolding plate 760 is sleeved on the first guide rod 780 through the second connecting hole, and the side wall of the second connecting hole is movably abutted against the first guide rod 780. Specifically, the second sliding seat 720, the first guide plate 750 and the second mounting seat 770 are arranged in sequence at intervals, and a plurality of first guide rods 780 are arranged on the second mounting seat 770. The first guide rods 780 are arranged parallel to each other. The first stripping plate 760 is sleeved on the first guide rod 780 through the second connecting hole and can slide on the first guide rod 780. In this way, it can play a guiding and limiting role. The first stripping plate 760 can move more smoothly in the direction of approaching or moving away from the first guide plate 750, and can better drive the first stripping rod 761 and the first ejection block 762 to demold the sintered carbon rod in the material loading cylinder on the mold.

[0065] In one embodiment, Fig.11 and Fig.12As shown, the sintered carbon rod production device also includes: a second demolding mechanism 800, the second demolding mechanism 800 includes: a seventh conveying platform 810, a third sliding seat 820, a fifth elastic member, a second side plate 830, a second guide plate 840 and a second demolding plate 850, the second side plate 830 and the second guide plate 840 are spaced apart on both sides of the third sliding seat 820, the second side plate 830 is provided with a second demolding hole 831, the seventh conveying platform 810 is slidably arranged on the third sliding seat 820, the seventh conveying platform 810 moves in a direction close to or away from the second side plate 830, and the second guide plate 840 is provided with a second demolding hole 831. A second guide hole is opened on it, and the second demolding plate 850 moves in a direction close to or away from the second guide plate 840. A second demolding rod 851 is arranged on the second demolding plate 850, and a first end of the second demolding rod 851 is connected to the second demolding plate 850, and a second end of the second demolding rod 851 is movably inserted in the second guide hole and at least partially protrudes to the outside of the second guide hole. A second ejection block 852 is arranged on the second end of the second demolding rod 851, a first end of the fifth elastic member is connected to the second guide plate 840, and a second end of the fifth elastic member is connected to a first side of the third sliding seat 820.

[0066] It is worth mentioning that the mold includes: a base plate, a material loading cylinder and a shaping cylinder, a positioning ring is arranged on the base plate, a placement cavity is opened inside the material loading cylinder, the side wall of the first end of the placement cavity is movably abutted against the outer wall of the positioning ring, the shaping cylinder is located in the placement cavity, and the outer surface of the first end of the shaping cylinder is movably abutted against the inner wall of the positioning ring, and the outer surface of the shaping cylinder and the side wall of the placement cavity are spaced to form a material loading space. During the processing, the base plate is separated from other components of the mold, that is, when demolding, the mold includes: a positioning ring, a material loading cylinder and a shaping cylinder. Therefore, it is necessary to first separate the shaping cylinder from the material loading cylinder, and then in the process of ejecting the sintered carbon rod, the positioning ring at one end of the sintered carbon rod is ejected, and finally the sintered carbon rod is completely ejected from the material loading cylinder to complete the demolding, that is, the second demolding mechanism 800 is required to first eject the shaping cylinder from the material loading cylinder, and finally the first demolding mechanism 700 ejects the sintered carbon rod in the material loading cylinder to complete the demolding.

[0067] In this embodiment, the first end of the seventh conveyor platform 810 is spaced apart from the second end of the fifth conveyor platform, the second end of the seventh conveyor platform 810 is spaced apart from the first end of the sixth conveyor platform 710, the second side plate 830 and the second guide plate 840 are spaced apart on both sides of the third sliding seat 820, the seventh conveyor platform 810 is slidably set on the third sliding seat 820, and the second demolding plate 850 moves in a direction close to or away from the second guide plate 840, so that the second demolding rod 851 can be driven to further protrude to the outside of the second guide hole on the second guide plate 840, thereby driving the second ejection block 852 on the second demolding rod 851 to move forward to eject the molding cylinder from the material loading cylinder. In this way, when the second ejection block 852 on the second demolding rod 851 moves forward to eject the shaping cylinder, the second ejection block 852 acts on the shaping cylinder in the material loading cylinder. Since the seventh conveying platform 810 is slidably arranged on the third sliding seat 820, the seventh conveying platform 810 on which the mold is placed slides on the third sliding seat 820 to move in a direction close to the second side plate 830, which can alleviate the force on the mold on the seventh conveying platform 810, thereby preventing the mold on the seventh conveying platform 810 from being offset or overturned. The two ends of the fifth elastic member are respectively connected to the second guide plate 840 and the third sliding seat 820. The fifth elastic member is a spring, which can further play a buffering role until it abuts against the second side plate 830. At this time, the fifth elastic member is in a stretched state, and the shaping cylinder in the mold is aligned with the second demolding hole 831 on the second side plate 830. Then the second ejector block 852 continues to move forward to eject the shaping cylinder in the mold, so that the shaping cylinder in the mold can be ejected smoothly. Finally, after the shaping cylinder is ejected from the material loading cylinder, the second demolding plate 850 moves away from the second guide plate 840, so that the second ejector block 852 moves backward away from the mold. Under the action of the fifth elastic member, the seventh conveying platform 810 can be automatically reset.

[0068] In one embodiment, the second demoulding mechanism 800 further includes: a second limiting plate, the second limiting plate is movably arranged on the second side plate 830, the second limiting plate is provided with a second limiting ring, and the second limiting ring is aligned with and connected to the second demoulding hole 831. Specifically, when the seventh conveying platform 810 abuts against the second side plate 830, the material loading cylinder on the mold located on the seventh conveying platform 810 is embedded in the second limiting ring, that is, the outer surface of the material loading cylinder is movably abutted against the inner side wall of the second limiting ring, which can play a limiting role, so that the shaping cylinder in the material loading cylinder is aligned with the second demoulding hole 831, and the width of the through hole in the second limiting ring is adapted to the width of the shaping cylinder. In this way, when the shaping cylinder is demoulded, the shaping cylinder can pass through the through hole in the second limiting ring into the second demoulding hole 831, but it can play a limiting role on the sintered carbon rod, and can prevent the sintered carbon rod from being ejected together, so that the shaping cylinder can be better ejected from the second demoulding hole 831. At the same time, the second limiting plate is detachably arranged on the second side plate 830. By replacing the second limiting plate, the specifications of the second limiting ring can be changed to adapt to molding cylinders of different specifications on the mold, that is, it can adapt to the limiting requirements of producing sintered carbon rods of different specifications. The second ejector block 852 is threadedly connected to the second end of the second demolding rod 851. By replacing the second ejector blocks 852 of different specifications, it can adapt to molding cylinders of different specifications on different molds, that is, it can eject molding cylinders of different specifications from the material loading cylinder.

[0069] In one embodiment, Fig.11As shown, the second demolding mechanism 800 also includes: a third mounting seat 860, the third mounting seat 860 is spaced apart from the second guide plate 840, a second guide rod 870 is arranged on the third mounting seat 860, a first end of the second guide rod 870 is connected to the third mounting seat 860, a second end of the second guide rod 870 is connected to the second guide plate 840, a third connecting hole is opened on the second demolding plate 850, the second demolding plate 850 is sleeved on the second guide rod 870 through the third connecting hole, and the side wall of the third connecting hole is movably abutted against the second guide rod 870, the second driver is arranged on the third mounting seat 860, and the second driver is drivingly connected to the second demolding plate 850. Specifically, the third sliding seat 820, the second guide plate 840 and the third mounting seat 860 are arranged at intervals in sequence, and a plurality of second guide rods 870 are arranged on the third mounting seat 860, and the second guide rods 870 are arranged parallel to each other. The second stripping plate 850 is sleeved on the second guide rods 870 through the third connecting hole and can slide on the second guide rods 870, so that it can play a guiding and limiting role. The second stripping plate 850 can move more smoothly in the direction of approaching or moving away from the second guide plate 840, and can better drive the second stripping rod 851 and the second ejection block 852 to demold the shaping cylinder in the material loading cylinder on the mold.

[0070] In one embodiment, the sintered carbon rod production device includes: a feeding mechanism, a primary compacting mechanism, a turning mechanism, a sintering mechanism, a secondary compacting mechanism, a cooling mechanism, a second demolding mechanism and a first demolding mechanism. The feeding mechanism, the primary compacting mechanism, the turning mechanism, the sintering mechanism, the secondary compacting mechanism, the cooling mechanism, the second demolding mechanism and the first demolding mechanism are arranged in sequence. Correspondingly, the second conveying platform, the third conveying platform, the fourth conveying platform, the first conveying platform, the fifth conveying platform, the seventh conveying platform and the sixth conveying platform are arranged in sequence. In this way, the mold after loading can be conveyed to the third conveying platform by the second conveying platform for primary compaction. After the mold is turned over, it is conveyed to the fourth conveying platform by the third conveying platform for sintering, and then conveyed to the first conveying platform by the fourth conveying platform for secondary compaction, and then conveyed to the fifth conveying platform for cooling, and finally demolded through the seventh conveying platform and the sixth conveying platform in sequence. It should be understood that the second conveying platform, the third conveying platform, the fourth conveying platform, the first conveying platform, the fifth conveying platform, the seventh conveying platform and the sixth conveying platform can all be roller conveying structures.

[0071] The technical features of the above-described embodiments may be arbitrarily combined. To make the description concise, not all possible combinations of the technical features in the above-described embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0072] The above-mentioned embodiments only express several embodiments of the present application, and the description is relatively specific and detailed, but it cannot be understood as limiting the scope of the invention patent. It should be pointed out that for ordinary technicians in this field, several modifications and improvements can be made without departing from the concept of the present application, which all belong to the protection scope of the present application. Therefore, the protection scope of the patent of this application shall be based on the attached claims.

Claims

1. A sintered carbon rod production device, characterized in that: include: Feeding mechanism, primary compacting mechanism, sintering mechanism and secondary compacting mechanism; The feeding mechanism, the primary compacting mechanism and the sintering mechanism are sequentially arranged at intervals; The secondary compaction mechanism comprises: a first conveying platform, two directional plates and two compaction plates, wherein the first conveying platform is spaced apart from the sintering mechanism; The two directional plates are spaced apart on both sides of the first conveying platform, and each of the directional plates is provided with a plurality of directional holes. Each of the compacting plates moves toward or away from a directional plate, and each of the compacting plates is provided with a plurality of compacting rods. The first end of each compacting rod is connected to the compacting plate, and the second end of each compacting rod is movably inserted into the directional hole, and the second end of each compacting rod at least partially protrudes to the outside of the directional hole.

2. The sintered carbon rod production device according to claim 1, characterized in that: The feeding mechanism includes: a second conveying platform, a storage bin, a lower hopper and a conveying pipe, the second conveying platform is spaced apart from the primary compacting mechanism, the storage bin is arranged on one side of the second conveying platform, the lower hopper is spaced apart from the second conveying platform, the first end of the conveying pipe is connected to the storage bin, the second end of the conveying pipe is connected to the lower hopper, the first surface of the storage bin is provided with a storage trough, the first surface of the lower hopper is provided with a feeding trough, the second surface of the lower hopper is provided with a feeding hole, the feeding hole is communicated with the feeding trough, the conveying pipe has a tube cavity, and the tube cavity is respectively communicated with the storage trough and the feeding trough, and a conveying screw is rotatably arranged in the tube cavity.

3. The sintered carbon rod production device according to claim 2, characterized in that: The primary compaction mechanism includes: a first support frame, a first elastic member, a third conveying platform and a vibration motor, wherein the first end of the first elastic member is connected to the first end of the first support frame, the second end of the first elastic member is connected to the first surface of the third conveying platform, the first end of the third conveying platform is spaced apart from the second conveying platform, the second end of the third conveying platform is spaced apart from the sintering mechanism, and the vibration motor is disposed on the first surface of the third conveying platform, and the vibration motor is used to drive the third conveying platform to vibrate.

4. The sintered carbon rod production device according to claim 3, characterized in that: The sintering mechanism includes: a fourth conveying platform, a sintering box and a heating element. The first end of the fourth conveying platform is spaced apart from the second end of the third conveying platform, and the second end of the fourth conveying platform is spaced apart from the first conveying platform. The sintering box is arranged on the fourth conveying platform, a sintering cavity is formed in the sintering box, and the heating element is arranged on the side wall of the sintering cavity.

5. The sintered carbon rod production device according to claim 2, characterized in that: The feeding mechanism further includes: a discharge pipe, which is connected to the second surface of the lower hopper and communicates with the lower hole.

6. The sintered carbon rod production device according to claim 3, characterized in that: A vibration groove is provided on the second surface of the third conveying platform.

7. The sintered carbon rod production device according to claim 4, characterized in that: The sintering mechanism also includes: two first curtains and two second curtains, a feed port and a discharge port are respectively provided at both ends of the sintering box body, the feed port and the discharge port are respectively connected to the sintering chamber, the two first curtains are arranged on the side wall of the first end of the sintering chamber at intervals, and the two first curtains are used to movably close the feed port, and the two second curtains are arranged on the side wall of the second end of the sintering chamber at intervals, and the two second curtains are used to movably close the discharge port.

8. The sintered carbon rod production device according to claim 7, characterized in that: Each of the first baffles includes a first mounting plate and a plurality of first baffles. The first mounting plate is connected to the side wall of the first end of the sintering chamber. The first baffles are arranged on the first mounting plate at intervals from each other.

9. The sintered carbon rod production device according to claim 8, characterized in that: Each of the second baffle curtains includes a second mounting plate and a plurality of second baffle bars. The second mounting plate is connected to the side wall of the second end of the sintering chamber. The second baffle bars are arranged on the second mounting plate at intervals from each other.

10. The sintered carbon rod production device according to claim 1, characterized in that: The secondary compaction mechanism also includes: two first cylinders, two second cylinders, two first limit rods and two second limit rods. The two first cylinders and the two second cylinders are respectively distributed on both sides of the first conveying platform at intervals, each of the first cylinders is arranged at intervals with a second cylinder, the two first limit rods and the two second limit rods are respectively rotatably arranged on both sides of the first conveying platform, each of the first limit rods is arranged at intervals with a second limit rod, the output end of each first cylinder is rotatably connected to the first end of a first limit rod, the output end of each second cylinder is rotatably connected to the first end of a second limit rod, the first cylinder drives the first limit rod to rotate onto the first conveying platform, the second cylinder drives the second limit rod to rotate onto the first conveying platform, and the intervals between each of the first limit rods and each of the second limit rods form a clamping area.

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