A waste communication cable incinerator

Abstract

The application discloses a waste communication cable incinerator and belongs to the technical field of waste incinerators. The waste communication cable incinerator comprises a fuel mechanism for adding fuel, two putting mechanisms and a pushing mechanism for putting waste communication cables into the fuel mechanism. The fuel mechanism can send the next batch of fuel into the fuel chamber after the fuel is used up. At this time, the fuel residue can be cleaned and new fuel can be put in for next use without stopping the furnace to replace the fuel and clean. When the sliding plate moves in the fuel chamber, the fuel chamber is closed by the partition plate and the switch door to ensure that the fuel burns in a closed environment. The putting mechanism can push the waste communication cables in the two incineration frames to the rotating slide after the waste communication cables are burned, and the next batch of waste communication cables to be incinerated can be sent into the incineration chamber together with the incineration frame, so that the burned cable residue can be taken out without stopping the furnace, and the incineration efficiency is reduced.

Description

Technical Field

[0001] This invention relates to the field of waste incinerator technology, and in particular to a waste communication cable incinerator. Background Technology

[0002] With the rapid development of information and communication technology, the replacement cycle of communication cables has been significantly shortened, resulting in a large amount of waste cables containing metals and insulation materials. The metal components can be reused to save costs. The main purpose of incinerators is to burn off the outer plastic or rubber materials of the cables at high temperatures, thereby recovering the internal metal materials (such as copper or aluminum). Incinerating waste communication cables to recover internal metal materials is efficient and convenient. However, existing waste communication cable incinerators require shutdown after incinerating a batch of waste communication cables to remove the incinerated residue and replace the fuel. Shutting down the furnace significantly reduces incineration efficiency and severely impacts production capacity. Summary of the Invention

[0003] To address the aforementioned technical problems, the present invention adopts the following technical solution: a waste communication cable incinerator, comprising a fuel mechanism for adding fuel, the fuel mechanism comprising a base plate, and the fuel mechanism being provided with two insertion mechanisms and one pushing mechanism for inserting waste communication cables.

[0004] The fuel mechanism includes a fuel chamber fixedly installed on a base plate, a combustion chamber fixedly installed on the fuel chamber, a sliding plate slidably installed on the base plate, a partition plate fixedly installed on the sliding plate, and two door opening modules provided on the fuel chamber.

[0005] Furthermore, the fuel mechanism also includes a bottom electric cylinder fixedly installed on the base plate, the output end of the bottom electric cylinder being fixedly installed with a sliding plate, and two sets of downward pressure brackets being fixedly installed on the igniter sliding plate in the fuel chamber.

[0006] Furthermore, the door opening module includes a door frame fixedly installed on the fuel chamber, a door slidably installed inside the door frame, a tension spring between the door and the combustion chamber, and a protruding post fixedly installed on the door, which cooperates with the lower pressure frame.

[0007] In use, fuel is placed on the sliding plate, with the fuel located on the right side of the partition plate. The bottom electric cylinder extends, causing the sliding plate to slide along the base plate. As the left-side pressure frame moves to the left, the tension spring of the left-side door opening module, which is in a stretched state, rebounds, causing the opening and closing door and protrusion of the left-side door opening module to rise, opening the left-side door. Subsequently, when the right-side pressure frame contacts the protrusion of the right-side door opening module, it causes the protrusion and opening and closing door of the right-side door opening module to descend, stretching the tension spring of the right-side door opening module. When the pressure frame fully presses down the right-side protrusion and opening and closing door, the partition plate reaches below the opening and closing door of the left-side door opening module. The partition plate and the right-side opening and closing door seal the fuel chamber, and the igniter in the fuel chamber ignites the fuel. At this time, the left side of the partition plate is outside the fuel chamber, and new fuel can be placed there. When the right side of the partition plate... After the fuel is used up, the bottom electric cylinder retracts, causing the sliding plate and partition plate to slide to the right. At this time, the right-side pressure frame moves to the right, and the tension spring of the right-side door opening module, which is in a stretched state, rebounds, causing the opening and closing door and protrusion of the right-side door opening module to rise, thus opening the right-side door. Subsequently, when the left-side pressure frame contacts the protrusion of the left-side door opening module, it causes the protrusion and opening and closing door of the left-side door opening module to descend, and the tension spring of the left-side door opening module is stretched. When the pressure frame completely presses down the protrusion and opening and closing door of the left-side door opening module, the partition plate reaches below the opening and closing door of the right-side door opening module. The fuel chamber is sealed by the partition plate and the left-side opening and closing door, completing the fuel replacement. At this time, the fuel residue on the right side of the partition plate can be cleaned and new fuel can be added for the next use. This process can be repeated, without the need to stop the furnace to add fuel and remove slag.

[0008] Furthermore, the feeding mechanism includes a slide rail fixedly installed on the incineration chamber, a rotating slide rail rotatably installed on the slide rail, a rotating shaft rotatably installed below the slide rail, a rotating rod fixedly installed on the rotating shaft, a driven rod rotatably installed on the rotating rod, and the driven rod rotatably installed with the rotating slide rail.

[0009] Furthermore, the rotating shafts of the two insertion mechanisms are connected by gear transmission, and the rotating shafts of the two insertion mechanisms rotate in opposite directions. A rotating motor is fixedly installed on the slide of the insertion mechanism on the right side, and the motor shaft of the rotating motor is fixedly installed with the rotating shaft.

[0010] Furthermore, a push frame module is provided on the slide rail. The push frame module includes a push screw rotatably installed below the slide rail, a push plate slidably installed on the slide rail, and the push plate and the push screw form a threaded transmission. A push frame electric cylinder is fixedly installed on the rotating slide rail, a horizontal push plate is fixedly installed on the output end of the push frame electric cylinder, and a guide post is fixedly installed on the horizontal push plate. The guide post is slidably installed with the rotating slide rail.

[0011] Furthermore, the push screws of the two push frame modules are connected by belt drive, and the thread directions of the push screws of the two push frame modules are opposite. A push motor is fixedly installed on the slide rail on the right side, and the motor shaft of the push motor is fixedly installed with the push screw of the push frame module on the right side.

[0012] Furthermore, two incineration frames are placed in the incineration chamber, and two incineration frames are placed on two rotating slides, with slopes provided on the incineration frames.

[0013] The waste communication cables inside the combustion chamber are burned by flames generated within the fuel chamber. During combustion, a lifting plate seals the combustion chamber. After the waste communication cables in the combustion chamber have burned completely, the lifting plate rises, and two pusher cylinders extend, pushing two combustion chambers located on rotating tracks onto two separate tracks via a horizontal pusher plate. The combustion chambers on the rotating tracks contain the waste communication cables to be burned. The pusher cylinders then retract, and the horizontal pusher plate returns to its initial position. This triggers a motor that rotates a lead screw, which, via belt drive, rotates synchronously, causing the pusher plate to slide along the tracks. The pusher plate pushes the incineration frame on the slide towards the incineration chamber, moving the frame from inside the chamber onto the rotating slide. The frame then enters the chamber. The motor then reverses, returning the pusher plate to its initial position. The rotating motor then drives the rotating shaft to rotate, which in turn drives two shafts to rotate synchronously via gear transmission. This rotates the rotating rod, which in turn drives the rotating slide to rotate. The rotating slide rotates the incineration frame, allowing the combustion residue to be removed and the next batch of waste communication cables to be incinerated to be placed inside. The rotating motor then reverses, resetting the rotating slide, and the process repeats.

[0014] Furthermore, the pushing mechanism includes an exhaust port fixedly installed on the incineration chamber, a lifting plate slidably installed on the incineration chamber, a lifting frame fixedly installed on the lifting plate, a lifting electric cylinder fixedly installed on the lifting frame, the output end of the lifting electric cylinder fixedly installed with the incineration chamber, a slope push block fixedly installed on the lifting plate, and a slope provided below the slope push block.

[0015] When the pusher plate pushes the incineration frame on the slide towards the incineration chamber, it pushes the incineration frame that was originally in the incineration chamber onto the rotating slide. The incineration frame on the slide enters the incineration chamber. At this time, since the pusher plate does not enter the bottom plate, both the incineration frame that just entered the incineration chamber and the incineration frame that was just pushed out of the incineration chamber have part of their frame below the lifting plate. At this time, the lifting electric cylinder retracts, driving the lifting frame and the lifting plate to descend. When the slope of the ramp pusher block contacts the slope of the pushed-out incineration frame, it will push the pushed-out incineration frame to slide outward. At the same time, through the ramp pusher block cooperating with the slope of the incineration frame, the incineration frame that was pushed into the incineration chamber is completely pushed into the incineration chamber. Then the lifting plate descends to the bottom and closes the incineration chamber.

[0016] The beneficial effects of the present invention compared with the prior art are: (1) The fuel mechanism set in the present invention can send the next batch of fuel into the fuel chamber after the fuel is used up. At this time, the fuel residue sent out can be cleaned and new fuel can be put in for the next use, without stopping the furnace to replace the fuel and clean. At the same time, when the sliding plate moves in the fuel chamber, the fuel chamber is closed by the partition plate and the switch door to ensure that the fuel burns in a closed environment; (2) The placement mechanism set in the present invention can push the waste communication cable in the two incineration frames to the rotating slide after the waste communication cable in the two incineration frames has been burned, and send the next batch of waste communication cable to be burned together with the incineration frame into the incineration chamber, avoiding stopping the furnace to take out the cable residue after the combustion is completed, which reduces the incineration efficiency; (3) The placement mechanism set in the present invention cooperates with the pushing mechanism to ensure that the incineration frame can be pushed into the incineration chamber, and the incineration chamber is closed by the lifting plate to ensure that the incineration is carried out in a closed manner. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the overall structure of the present invention.

[0018] Figure 2 This is a schematic diagram of the fuel mechanism structure of the present invention. Figure 1 .

[0019] Figure 3 This is a schematic diagram of the fuel mechanism structure of the present invention. Figure 2 .

[0020] Figure 4 This is a schematic diagram of the mechanism structure of the present invention. Figure 1 .

[0021] Figure 5 This is a schematic diagram of the mechanism structure of the present invention. Figure 2 .

[0022] Figure 6 This is a schematic diagram of the mechanism structure of the present invention. Figure 3 .

[0023] Figure 7 This is a schematic diagram of the pushing mechanism structure of the present invention. Figure 1 .

[0024] Figure 8 This is a schematic diagram of the pushing mechanism structure of the present invention. Figure 2 .

[0025] Reference numerals: 101-Base plate; 102-Bottom electric cylinder; 103-Sliding plate; 104-Lower pressure frame; 105-Protruding column; 106-Fuel chamber; 107-Door frame; 108-Opening and closing door; 109-Tension spring; 110-Incineration chamber; 111-Baffle plate; 201-Slide rail; 202-Incineration frame; 203-Push frame electric cylinder; 204-Guide column; 205-Rotating slide rail; 206-Rotating motor; 207-Push motor; 208-Push screw; 209-Rotating shaft; 210-Rotating rod; 211-Driven rod; 212-Push plate; 213-Horizontal push plate; 301-Exhaust port; 302-Lifting frame; 303-Lifting electric cylinder; 304-Lifting plate; 305-Slope push block. Detailed Implementation

[0026] The specific embodiments of the present invention will be further described below with reference to the accompanying drawings.

[0027] Example: Reference Figures 1-8 A waste communication cable incinerator includes a fuel mechanism for adding fuel. The fuel mechanism includes a base plate 101 and is provided with two insertion mechanisms and a pushing mechanism for inserting waste communication cables.

[0028] The fuel mechanism includes a fuel chamber 106 fixedly installed on a base plate 101, a combustion chamber 110 fixedly installed on the fuel chamber 106, a sliding plate 103 slidably installed on the base plate 101, a partition plate 111 fixedly installed on the sliding plate 103, and two door opening modules provided on the fuel chamber 106.

[0029] like Figure 2 , Figure 3 As shown, the fuel mechanism also includes a bottom electric cylinder 102 fixedly installed on the base plate 101. The output end of the bottom electric cylinder 102 is fixedly installed on the sliding plate 103. An igniter is provided in the fuel chamber 106. Two sets of lower pressure brackets 104 are fixedly installed on the sliding plate 103.

[0030] like Figure 2 , Figure 3 As shown, the door opening module includes a door frame 107 fixedly installed on the fuel chamber 106, a door 108 slidably installed inside the door frame 107, a tension spring 109 between the door 108 and the combustion chamber 110, and a protrusion 105 fixedly installed on the door 108, which cooperates with the lower pressure frame 104.

[0031] In use, fuel is placed on the sliding plate 103, with the fuel located on the right side of the partition plate 111. The bottom electric cylinder 102 extends, causing the sliding plate 103 to slide along the base plate 101. As the left-side lower pressure frame 104 moves to the left, the tension spring 109 of the left-side door opening module, which is in a stretched state, rebounds, causing the opening / closing door 108 and the protrusion 105 of the left-side door opening module to rise, thus opening the left-side door 108. Subsequently, when the right-side lower pressure frame 104 contacts the protrusion 105 of the right-side door opening module, it drives the right... As the protrusion 105 and the switch door 108 of the side-opening module descend, the tension spring 109 of the right-side opening module is stretched. When the pressing frame 104 fully presses down the right-side protrusion 105 and the switch door 108, the partition plate 111 reaches below the switch door 108 of the left-side opening module, sealing the fuel chamber 106 through the partition plate 111 and the right-side switch door 108. The igniter inside the fuel chamber 106 ignites the dye. At this time, the left side of the partition plate 111 is located outside the fuel chamber 106, allowing for the placement of new fuel. After the fuel on the right side of the partition plate 111 is used up, the bottom electric cylinder 102 retracts, causing the sliding plate 103 and the partition plate 111 to slide to the right. At this time, the right-side lower pressure frame 104 moves to the right, and the tension spring 109 of the right-side door opening module, which is in a stretched state, rebounds, causing the opening / closing door 108 and the protrusion 105 of the right-side door opening module to rise, thus opening the right-side opening / closing door 108. Subsequently, when the left-side lower pressure frame 104 contacts the protrusion 105 of the left-side door opening module, it drives the protrusion 105 and the opening / closing door of the left-side door opening module to move. As the door 108 descends, the tension spring 109 of the left-side door opening module is stretched. When the pressing frame 104 completely presses down the left-side protrusion 105 and the opening / closing door 108, the partition plate 111 reaches below the opening / closing door 108 of the right-side door opening module. The fuel chamber 106 is sealed by the partition plate 111 and the left-side opening / closing door 108, completing the fuel replacement. At this time, the fuel residue on the right side of the partition plate 111 can be cleaned and new fuel can be added for the next use. This process can be repeated without having to stop the furnace to add fuel or remove slag.

[0032] like Figures 4-6 As shown, the feeding mechanism includes a slide 201 fixedly installed on the incineration chamber 110, a rotating slide 205 rotatably installed on the slide 201, a rotating shaft 209 rotatably installed below the slide 201, a rotating rod 210 fixedly installed on the rotating shaft 209, and a driven rod 211 rotatably installed on the rotating rod 210. The driven rod 211 is rotatably installed with the rotating slide 205.

[0033] like Figures 4-6 As shown, the rotating shafts 209 of the two insertion mechanisms are connected by gear transmission, and the rotating shafts 209 of the two insertion mechanisms rotate in opposite directions. A rotating motor 206 is fixedly installed on the slide 201 of the insertion mechanism on the right side, and the motor shaft of the rotating motor 206 is fixedly installed with the rotating shaft 209.

[0034] like Figures 4-6 As shown, a push frame module is provided on the slide rail 201. The push frame module includes a push screw 208 rotatably installed below the slide rail 201. A push plate 212 is slidably installed on the slide rail 201. The push plate 212 and the push screw 208 form a threaded transmission. A push frame electric cylinder 203 is fixedly installed on the rotating slide rail 205. A horizontal push plate 213 is fixedly installed on the output end of the push frame electric cylinder 203. A guide post 204 is fixedly installed on the horizontal push plate 213. The guide post 204 is slidably installed with the rotating slide rail 205.

[0035] like Figures 4-6 As shown, the push screws 208 of the two push frame modules are connected by belt drive, and the thread directions of the push screws 208 of the two push frame modules are opposite. A push motor 207 is fixedly installed on the slide rail 201 on the right side, and the motor shaft of the push motor 207 is fixedly installed with the push screw 208 of the push frame module on the right side.

[0036] like Figures 4-6 As shown, two incineration frames 202 are placed inside the incineration chamber 110, and two incineration frames 202 are placed on two rotating slides 205. The incineration frames 202 are provided with slopes.

[0037] The flame generated in the fuel chamber 106 incinerates the waste communication cables in the incineration frame 202 located in the incineration chamber 110. During incineration, the lifting plate 304 closes the incineration chamber 110. After the waste communication cables in the incineration frame 202 have been incinerated, the lifting plate 304 rises, and the two pusher cylinders 203 extend. Through the horizontal pusher plate 213, the two incineration frames 202 located on the rotating slide rails 205 are pushed onto the two slide rails 201 respectively. The waste communication cables to be incinerated are placed in the incineration frames 202 on the rotating slide rails 205. Then, the pusher cylinders 203 retract, and the horizontal pusher plate 213 returns to its initial position. Then, the drive motor 207 rotates, driving the drive screw 208 to rotate. Through belt drive, the two drive screws 208 rotate synchronously, thereby driving the pusher plate 212 to slide along the slide rail 201. 212 pushes the incineration frame 202 on the slide 201 toward the incineration chamber 110, pushing the incineration frame 202, which was originally in the incineration chamber 110, onto the rotating slide 205. The incineration frame 202 on the slide 201 enters the incineration chamber 110. Then, the motor 207 is driven to reverse, causing the push plate 212 to return to its initial position. Then, the rotating motor 206 drives the rotating shaft 209 to rotate. Through gear transmission, the two rotating shafts 209 rotate synchronously, thereby driving the rotating rod 210 to rotate. Through the driven rod 211, the rotating slide 205 is driven to rotate. The rotating slide 205 drives the incineration frame 202 on it to rotate out, making it easier to remove the combustion residue in the incineration frame 202 and put in the next batch of waste communication cables to be incinerated. Then, the rotating motor 206 reverses, driving the rotating slide 205 to reset, and so on.

[0038] like Figure 7 , Figure 8 As shown, the pushing mechanism includes an exhaust port 301 fixedly installed on the incineration chamber 110, a lifting plate 304 slidably installed on the incineration chamber 110, a lifting frame 302 fixedly installed on the lifting plate 304, a lifting electric cylinder 303 fixedly installed on the lifting frame 302, the output end of the lifting electric cylinder 303 fixedly installed with the incineration chamber 110, a slope push block 305 fixedly installed on the lifting plate 304, and a slope is provided below the slope push block 305.

[0039] When the push plate 212 pushes the incineration frame 202 on the slide rail 201 toward the incineration chamber 110, the incineration frame 202, which was originally in the incineration chamber 110, is pushed onto the rotating slide rail 205. The incineration frame 202 on the slide rail 201 then enters the incineration chamber 110. At this time, since the push plate 212 does not enter the bottom plate 101, both the incineration frame 202 that has just entered the incineration chamber 110 and the incineration frame 202 that has just been pushed out of the incineration chamber 110 have parts of their frame located below the lifting plate 304. At this time, the lifting cylinder 303 retracts, causing the lifting frame 302 and the lifting plate 304 to descend. When the slope of the slope push block 305 contacts the slope on the incineration frame 202 that is being pushed out, it will push the incineration frame 202 to slide outward. At the same time, through the slope push block 305 cooperating with the slope of the incineration frame 202, the incineration frame 202 that is being pushed into the incineration chamber 110 is completely pushed into the incineration chamber 110. Then the lifting plate 304 descends to the bottom and closes the incineration chamber 110.

[0040] The working principle of the waste communication cable incinerator disclosed in this invention is as follows: During use, fuel is piled on the sliding plate 103, with the fuel located on the right side of the partition plate 111. The bottom electric cylinder 102 extends, causing the sliding plate 103 to slide along the bottom plate 101. As the left-side lower pressure frame 104 moves to the left, the tension spring 109 of the left-side door opening module, which is in a stretched state, rebounds, causing the opening / closing door 108 and the protrusion 105 of the left-side door opening module to rise, thus opening the left-side opening / closing door 108. Subsequently, when the right-side lower pressure frame 104 and the right... After the protrusion 105 of the side-opening module contacts, it causes the protrusion 105 of the right-side opening module and the switch door 108 to descend. The tension spring 109 of the right-side opening module is stretched. When the pressing frame 104 completely presses down the protrusion 105 and the switch door 108 on the right side, the partition plate 111 reaches below the switch door 108 of the left-side opening module. The fuel chamber 106 is sealed by the partition plate 111 and the right-side switch door 108. The igniter in the fuel chamber 106 ignites the dye. At this time, the left side of the partition plate 111 is outside the fuel chamber 106. On the side, new fuel can be placed. When the fuel on the right side of the partition plate 111 is used up, the bottom electric cylinder 102 retracts, causing the sliding plate 103 and the partition plate 111 to slide to the right. At this time, the right-side lower pressure frame 104 moves to the right, and the tension spring 109 of the right-side door opening module, which is in a stretched state, rebounds, causing the opening and closing door 108 and the protrusion 105 of the right-side door opening module to rise, thus opening the right-side opening and closing door 108. Subsequently, when the left-side lower pressure frame 104 contacts the protrusion 105 of the left-side door opening module, it drives the protrusion of the left-side door opening module to move. When 105 and the switch door 108 descend, the tension spring 109 of the left door opening module is stretched. When the pressing frame 104 completely presses down the left protrusion 105 and the switch door 108, the partition plate 111 reaches below the switch door 108 of the right door opening module. The fuel chamber 106 is sealed by the partition plate 111 and the left switch door 108, completing the fuel replacement. At this time, the fuel residue on the right side of the partition plate 111 can be cleaned and new fuel can be added for the next use. This process can be repeated without having to add fuel and remove slag after shutting down the furnace.The flame generated in the fuel chamber 106 incinerates the waste communication cables in the incineration frame 202 located in the incineration chamber 110. During incineration, the lifting plate 304 closes the incineration chamber 110. After the waste communication cables in the incineration frame 202 have been incinerated, the lifting cylinder 303 extends, causing the lifting plate 304 to rise. The two push-frame cylinders 203 extend, pushing the two incineration frames 202 located on the rotating slide rails 205 onto the two slide rails 201 via the horizontal push plate 213. The incineration frames 202 on the rotating slide rails 205 contain the waste communication cables to be incinerated. Then, the push-frame cylinders 203 retract, and the horizontal push plate 213 returns to its initial position. Subsequently, the drive motor 207 rotates, driving the drive screw 208 to rotate. The two drive screws 208 rotate synchronously via belt drive, thereby causing the push plate 212 to slide along the slide rail 201. When the push plate 212 pushes the incineration frames 202 on the slide rail 201 towards the incineration chamber... Pushing 110 pushes the incineration frame 202, which was originally in the incineration chamber 110, onto the rotating slide 205. The incineration frame 202 on the slide 201 enters the incineration chamber 110. At this time, since the push plate 212 does not enter the bottom plate 101, both the incineration frame 202 that just entered the incineration chamber 110 and the incineration frame 202 that just exited the incineration chamber 110 have parts of their frame below the lifting plate 304. At this time, the lifting electric cylinder 303 retracts, driving the lifting plate 304 to retract. The lowering frame 302 and the lifting plate 304 descend. When the slope of the slope pusher 305 contacts the slope of the pushed-out incineration frame 202, it will push the pushed-out incineration frame 202 to slide outward. At the same time, through the slope pusher 305 and the slope of the incineration frame 202, the incineration frame 202 pushed into the incineration chamber 110 is completely pushed into the incineration chamber 110. Then the lifting plate 304 descends to the bottom, sealing the incineration chamber 110 for the next incineration. Then, the motor 207 is reversed, causing the push plate 212 to return to its initial position. Then, the motor 206 drives the rotating shaft 209 to rotate. Through gear transmission, the two rotating shafts 209 rotate synchronously, thereby driving the rotating rod 210 to rotate. Through the driven rod 211, the rotating slide 205 is driven to rotate. The rotating slide 205 drives the incineration frame 202 on it to rotate out, so that the combustion residue in the incineration frame 202 can be removed and the next batch of waste communication cables to be incinerated can be put in. Then, the motor 206 is reversed, driving the rotating slide 205 to reset, and so on.

[0041] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the present invention based on the technical solution and inventive concept of the present invention should be covered within the scope of protection of the present invention.

Claims

1. A waste communication cable incinerator comprising a fuel mechanism for adding fuel, characterised in that: The fuel mechanism comprises a bottom plate (101), two putting mechanisms and a pushing mechanism are arranged on the fuel mechanism for putting waste communication cables; The fuel mechanism comprises a fuel chamber (106) fixedly installed on the bottom plate (101), a burning chamber (110) fixedly installed on the fuel chamber (106), a sliding plate (103) slidingly installed on the bottom plate (101), a partition plate (111) fixedly installed on the sliding plate (103), and two door opening modules arranged on the fuel chamber (106). The fuel mechanism further comprises a bottom cylinder (102) fixedly installed on the bottom plate (101), an output end of the bottom cylinder (102) being fixedly installed with the sliding plate (103), an igniter being arranged in the fuel chamber (106), and two groups of pressing frames (104) being fixedly installed on the sliding plate (103). The door opening module comprises a door frame (107) fixedly installed on the fuel chamber (106), a door (108) slidingly installed in the door frame (107), a tension spring (109) arranged between the door (108) and the burning chamber (110), a convex column (105) fixedly installed on the door (108), and the convex column (105) cooperating with the pressing frame (104). The putting mechanism comprises a slide (201) fixedly installed on the burning chamber (110), and a rotating slide (205) rotatably installed on the slide (201). The burning chamber (110) is provided with two burning frames (202), and the two rotating slides (205) are provided with the two burning frames (202), and the burning frame (202) is provided with a slope surface. A rotating shaft (209) is rotatably installed below the slide (201), a rotating rod (210) is fixedly installed on the rotating shaft (209), a driven rod (211) is rotatably installed on the rotating rod (210), and the driven rod (211) is rotatably installed with the rotating slide (205). The slide (201) is provided with a pushing frame module, the pushing frame module comprises a pushing screw rod (208) rotatably installed below the slide (201), a pushing plate (212) slidingly installed on the slide (201), the pushing plate (212) being in threaded transmission with the pushing screw rod (208), a pushing cylinder (203) fixedly installed on the rotating slide (205), a horizontal pushing plate (213) fixedly installed on an output end of the pushing cylinder (203), a guide column (204) fixedly installed on the horizontal pushing plate (213), and the guide column (204) being slidingly installed with the rotating slide (205).

2. A waste communication cable incinerator according to claim 1, wherein: The rotating shafts (209) of the two putting mechanisms are connected through gear transmission, the rotating directions of the rotating shafts (209) of the two putting mechanisms are opposite, a rotating motor (206) is fixedly installed on the slide (201) of the right putting mechanism, and a motor shaft of the rotating motor (206) is fixedly installed with the rotating shaft (209).

3. A waste communication cable incinerator as defined in claim 1 wherein: The pushing lead screws (208) of the two pushing frame modules are connected through a belt drive, and the screw directions of the pushing lead screws (208) of the two pushing frame modules are opposite, the right slide (201) is fixedly provided with a pushing motor (207), and a motor shaft of the pushing motor (207) is fixedly provided with the pushing lead screw (208) of the right pushing frame module.

4. A waste communication cable incinerator as defined in claim 1 wherein: The pushing mechanism comprises an exhaust port (301) fixedly installed on the incineration chamber (110), the incineration chamber (110) is slidably provided with a lifting plate (304), the lifting plate (304) is fixedly provided with a lifting frame (302), the lifting frame (302) is fixedly provided with a lifting electric cylinder (303), the output end of the lifting electric cylinder (303) is fixedly provided with the incineration chamber (110), the lifting plate (304) is fixedly provided with a slope pushing block (305), and a slope is arranged below the slope pushing block (305).

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