Environment-friendly solid waste recovery treatment equipment

Abstract

The invention relates to the field of waste recovery, and discloses environment-friendly solid waste recovery treatment equipment which comprises a linkage crushing mechanism located on an input guide mechanism, and the linkage crushing mechanism is matched with a feeding volute, an edge ring sleeve, a linkage gear, a second embedded cylinder sleeve and an extension ring structure of a center shaft sleeve to be used for crushing plastic solid waste; the linkage conduction mechanism is located on the net-shaped tank body and matched with the first embedded cylinder sleeve and the bottom ring to be used for intermittently conveying the crushed solid waste, and the irregular conical block and the V-shaped limiting groove are used for forming intermittent rotation driving force for spiral conveying. And through the input guide mechanism mounted at the top of the external tank body and the linkage crushing mechanism in the external tank body, the plastic waste can be quickly fed into the crushing system to be refined. Wind power generated by the central adsorption mechanism further pushes the waste to be conveyed and crushed, and the waste is crushed twice or more in the linkage crushing mechanism.

Description

Technical Field

[0001] The present invention relates to the technical field of waste recycling, and in particular to an environmentally friendly solid waste recycling and processing device. Background Art

[0002] Plastic products are difficult to degrade naturally in nature. Therefore, in order to reduce the pollution of waste plastics to nature, waste plastics are usually recycled and reused, such as discarded automobile connectors and other waste plastic parts. Plastic recycling usually involves crushing waste plastics through a crusher and then remelting and shaping them for secondary use.

[0003] Many traditional waste recycling processes produce a large amount of harmful gases during the treatment process. These waste gas emissions are usually difficult to completely capture and purify, causing serious pollution to the environment. At the same time, the recycling process is inefficient when crushing, refining and recycling plastic waste, and often cannot achieve the ideal refining effect, resulting in poor quality and large waste of recycled plastic waste. The heating and melting of the waste is often uneven, resulting in some waste not being completely melted, affecting the recycling effect and even wasting energy. There is a problem of low energy efficiency in the heating process, and usually more energy is required to heat the waste, resulting in waste of heat energy. The transportation of waste often relies on simple mechanical devices, resulting in low waste transmission efficiency and slow processing process, especially in the heating and refining stages, the waste residence time is insufficient, affecting the recycling effect. Summary of the Invention

[0004] In response to the shortcomings of the existing technology, the present invention provides an environmentally friendly solid waste recycling and processing equipment, which solves the problems of low efficiency and poor energy efficiency in the traditional waste recycling process, easy generation of harmful gases, waste of heat energy, and difficulty in completely recycling plastic waste, leading to environmental pollution and waste of resources.

[0005] To achieve the above objectives, the present invention is implemented through the following technical solutions: an environmentally friendly solid waste recycling and processing equipment, comprising

[0006] Fixed frame, used to fix the structure of solid waste recycling and processing equipment;

[0007] The external tank is located on a fixed frame and is used to receive and transport the crushed plastic solid waste;

[0008] The mesh tank is located on the external tank and is used to receive the waste gas generated by the heating of the waste in the form of infiltration;

[0009] The input guide mechanism is located on the external tank body, which is used to receive and carry the plastic waste to be crushed, and is also indirectly installed with the crushing structure and feeding mechanism;

[0010] The spraying and spreading mechanism is located on the input guide mechanism and cooperates with the sleeve structure of the feed volute to spray the fusion agent required for adsorbing the exhaust gas;

[0011] The central adsorption mechanism is located on the input guide mechanism, and cooperates with the feed volute and the gathering pipe to generate wind force that gathers toward the center, so as to absorb the exhaust gas generated by the waste heating;

[0012] The linkage crushing mechanism is located on the input guide mechanism, and is used to crush plastic solid waste in conjunction with the feed volute, side ring sleeve, linkage gear, embedded cylinder sleeve 2 and the extension ring structure of the center shaft sleeve;

[0013] The linkage transmission mechanism is located on the mesh tank body, and cooperates with the embedded cylinder sleeve and the bottom ring to intermittently transport the crushed solid waste;

[0014] The intermittent transmission mechanism is located on the central adsorption mechanism, and cooperates with the central shaft sleeve, the rail structure of the embedded cylinder sleeve, the interference ring, the interference triangle block, the linkage sleeve, the irregular cone block and the V-shaped limit groove to form an intermittent rotation driving force for the spiral conveyor.

[0015] Preferably, the external tank body is fixedly connected to a fixed frame, and a circumferentially distributed heating element is provided on the side of the external tank body. The mesh tank body is embedded and fixed inside the external tank body, and a gap area is formed between the mesh tank body and the inner wall of the external tank body. The bottom of the mesh tank body is provided with a bucket structure, and a discharge pipe structure is opened. The input guide mechanism is arranged at the input port on the top of the external tank body, the spray evenly spreading mechanism is arranged at the top center of the input guide mechanism, the central adsorption mechanism is embedded in the input guide mechanism and extends into the mesh tank body, the linkage crushing mechanism is embedded in the input guide mechanism, and the linkage conduction mechanism is arranged on the input guide mechanism and extends to the gap area between the external tank body and the mesh tank body.

[0016] Preferably, the input guiding mechanism includes an inlet volute, the sleeve structure of the inlet volute is arranged at the top center of the inlet volute, the inlet volute is fixedly connected to the top of the external tank body, the embedded cylinder sleeve is embedded and arranged on the outside of the inlet volute, and forms an intermittent area with the inlet volute, and is fixed to the top of the external tank body by the bracket structure, the rail structure of the embedded cylinder sleeve is embedded and fixed on the inner wall of the embedded cylinder sleeve, the side ring sleeve is fixedly connected to the inner wall of the inlet volute, and is located at the input of the inlet volute. The entrance height, the circumferentially distributed strip crushing pieces are fixedly connected between the side ring sleeve and the inner wall of the feed volute, the top and bottom of the strip crushing pieces are provided with T-shaped grinding gear structures, the circumferentially distributed rotation of the linkage gear is embedded in the inner wall of the side ring sleeve, the embedded cylinder sleeve 2 is fixedly sleeved on the side wall of the embedded cylinder sleeve 1, and an annular filter disc is slidably embedded in the bottom of the feed volute, the inner ring part of the annular filter disc is provided with a nesting structure, and is embedded in the embedded cylinder sleeve 2, and a retaining spring structure is provided between the inner wall of the embedded cylinder sleeve 2.

[0017] Preferably, the spraying and evenly spreading mechanism includes a collecting pipe fixedly connected to the top sleeve structure of the feed volute, and the bottom output port of the collecting pipe is provided with circumferentially distributed spray pipes.

[0018] Preferably, the central adsorption mechanism includes a central sleeve, a gear ring structure for driving rotation is provided on the top of the central sleeve, the rail structure of the central sleeve is embedded and fixed on the inner wall of the central sleeve, the extension ring structure of the central sleeve is fixed on the top of the central sleeve and extends to the area of ​​the linkage crushing mechanism, the central sleeve is embedded and rotated inside the side ring sleeve, the interference ring is fixed on the middle of the outer wall of the central sleeve, the bottom ring is fixed on the bottom of the central sleeve, the bottom of the central sleeve is fixedly connected with circumferentially distributed arc fan blades, and extends to the bottom of the mesh tank body, and the two sides of the interference triangle block are relatively fixed on the bottom of the interference ring.

[0019] The top wall of the embedded shaft sleeve is fixedly connected to the vortex fan blades, and the vortex fan blades are located at the input port height of the feed vortex shell, and the side wall of the embedded shaft sleeve is rotatably connected to the linkage rotated plate, and the top wall of the linkage rotated plate is provided with a circumferentially distributed grinding bar structure and a circumferentially distributed falling groove structure. The bottom of the linkage rotated plate is fixedly connected to the bottom linkage plate, and the bottom of the bottom linkage plate and the bottom of the linkage rotated plate are fixedly connected with a cross-arranged and circumferentially distributed grinding column structure, and the bottom linkage plate is provided with a uniformly distributed small mesh hole structure, and the outer ring part of the linkage rotated plate and the outer ring part of the bottom linkage plate are provided with relatively distributed gear structures, and are simultaneously embedded in the side ring sleeve, and the outer ring gear structure of the linkage rotated plate and the bottom linkage plate are meshed and connected to the tooth keys on both sides of the linkage gear.

[0020] Preferably, the linkage transmission mechanism includes an embedded turntable, the outer ring of the embedded turntable is fixedly connected to a spiral feed channel, the spiral feed channel is embedded and fitted between the external tank body and the mesh tank body, and the top of the embedded turntable is fixedly connected to a linkage sleeve, which rotates in fit with the inner wall of the embedded sleeve sleeve.

[0021] Preferably, the intermittent transmission mechanism includes a downward pressure sleeve, which is sleeved and fixed on the outer wall of the center sleeve and is located below the resistance ring and above the bottom ring. The top of the downward pressure sleeve is fixedly connected to a top contact disk, and a retaining spring structure is embedded between the top contact disk and the top wall of the bottom ring. The side walls of the downward pressure sleeve are fixed with embedded retaining shafts on both sides, and the top of the downward pressure sleeve is fixedly connected to a trapezoidal downward pressure block.

[0022] Preferably, the irregular cone blocks are fixedly connected to the top of the inner wall of the linkage sleeve in a circular distribution to form a circularly distributed inline groove structure on the inner wall of the linkage sleeve. The bottom surface of the irregular cone blocks is provided with inclined surfaces of different angles on both sides. The inner wall of the linkage sleeve is provided with circumferentially distributed V-shaped limit grooves, which correspond to the number of irregular cone blocks and are located below the irregular cone blocks.

[0023] Preferably, the top contact plate is provided with embedding grooves on two opposite sides, and the top contact plate is engaged with the rail structure of the embedded tube sleeve through the embedding grooves.

[0024] The present invention provides an environmentally friendly solid waste recycling and processing device. It has the following beneficial effects:

[0025] 1. This invention achieves waste crushing and efficient recycling capabilities: Through an input guide mechanism mounted on the top of the external tank and an internal linked crushing mechanism, plastic waste is rapidly fed into the crushing system for crushing. Wind force generated by a central suction mechanism further promotes waste transport and crushing. Within the linked crushing mechanism, the waste undergoes two or more crushing stages: initial cutting by the strip-shaped crushing elements, followed by secondary impact crushing by the rotation of the linked turntable, ultimately reducing the waste to particles that meet standard specifications.

[0026] 2. The present invention features a wind-driven central adsorption mechanism: The wind generated by the central adsorption mechanism not only adsorbs and purifies waste gas but also drives the operation of the linked crushing mechanism. This design enhances the overall system's interoperability, enabling simultaneous crushing and waste gas treatment, improving overall equipment efficiency. The intermittent transmission mechanism transmits rotational torque to the linked transmission mechanism, allowing for intermittent transport of refined waste between the mesh tank and the external tank. This increases the heating time and thermal contact area of ​​the waste, thereby optimizing the melting process and increasing the recovery rate.

[0027] 3. This invention features precise control through intermittent transmission and linkage mechanisms: The intermittent transmission mechanism ensures precise control of the equipment, enabling precise waste crushing and transportation. The operation of each link relies on the coordination of the linkage mechanism, achieving efficient operation and energy savings. The overall design of the equipment ensures the coordinated operation of all modules (including the adsorption mechanism, crushing mechanism, and conveying system), reducing the need for manual intervention, improving the degree of automation, and adapting to the needs of large-scale recycling. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 A three-dimensional schematic diagram of the main structure of the present invention Figure 1 ;

[0029] Figure 2 A three-dimensional schematic diagram of the main structure of the present invention Figure 2 ;

[0030] Figure 3 A three-dimensional schematic diagram of the main structure of the present invention Figure 3 ;

[0031] Figure 4 It is a schematic diagram of the internal structure of the main body of the present invention;

[0032] Figure 5 Schematic diagram of the internal structure of the fixed frame of the present invention Figure 1 ;

[0033] Figure 6 Schematic diagram of the internal structure of the fixed frame of the present invention Figure 2 ;

[0034] Figure 7 Schematic diagram of the internal structure of the main body of the present invention Figure 2 ;

[0035] Figure 8 This is a schematic structural diagram of the input guide mechanism of the present invention;

[0036] Figure 9 This is a schematic cross-sectional view of the input guide mechanism structure of the present invention. Figure 1

[0037] Figure 10 This is a schematic cross-sectional view of the input guide mechanism structure of the present invention. Figure 2 ;

[0038] Figure 11 It is a structural schematic diagram of the linkage crushing mechanism of the present invention;

[0039] Figure 12 This is a schematic structural diagram of the central adsorption mechanism of the present invention;

[0040] Figure 13 This is a schematic diagram of the central adsorption mechanism structure installation of the present invention;

[0041] Figure 14 It is a schematic cross-sectional view of the central adsorption mechanism structure of the present invention;

[0042] Figure 15 It is a schematic structural diagram of the intermittent transmission mechanism of the present invention;

[0043] Figure 16 It is a schematic structural diagram of the intermittent transmission mechanism of the present invention.

[0044] Among them, 1. Fixed frame; 2. External tank; 3. Mesh tank; 4. Input guide mechanism; 5. Spraying and spreading mechanism; 6. Central adsorption mechanism; 7. Linkage crushing mechanism; 8. Linkage transmission mechanism; 9. Intermittent transmission mechanism; 41. Feed volute; 42. Embedded cylinder sleeve 1; 43. Side ring sleeve; 44. Strip crushing piece; 45. Linkage gear; 46. Embedded cylinder sleeve 2; 47. Annular filter disc; 51. Collection pipe; 52. Spray Sprinkler pipe; 61, center sleeve; 62, resistance ring; 63, bottom ring; 64, arc-shaped fan blade; 65, resistance triangle block; 71, embedded sleeve; 72, vortex fan blade; 73, linkage turntable; 74, bottom linkage disk; 81, embedded turntable; 82, spiral feed channel; 83, linkage sleeve; 84, irregular cone block; 85, V-shaped limit groove; 91, lower pressure sleeve; 92, top contact disk; 93, embedded clamping shaft; 94, trapezoidal lower pressure block. DETAILED DESCRIPTION

[0045] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0046] Please see the attached Figure 1 -Attached Figure 3The embodiment of the present invention provides an environmentally friendly solid waste recycling and processing equipment, including: a fixed frame 1 for fixing the structure of the solid waste recycling and processing equipment, an external tank body 2 is located on the fixed frame 1, and is used to receive and transport the crushed plastic solid waste, a mesh tank body 3 is located on the external tank body 2, and is used to receive the waste gas generated after the waste is heated in the form of infiltration, the external tank body 2 is fixedly connected to the fixed frame 1, and a circumferentially distributed heating element is provided on the side of the external tank body 2, the mesh tank body 3 is embedded and fixed in the interior of the external tank body 2, and a gap area is formed between the mesh tank body 3 and the inner wall of the external tank body 2, and a bucket structure is provided at the bottom of the mesh tank body 3. The input guide mechanism 4 is arranged at the input port on the top of the external tank body 2, the spraying and spreading mechanism 5 is arranged at the center of the top of the input guide mechanism 4, the central adsorption mechanism 6 is embedded in the input guide mechanism 4 and extends to the mesh tank body 3, the linkage crushing mechanism 7 is embedded in the input guide mechanism 4, the linkage conduction mechanism 8 is arranged on the input guide mechanism 4, and extends to the gap area between the external tank body 2 and the mesh tank body 3. The equipment is mainly used for crushing and liquefying solid waste for recycling of plastic materials. The overall structure is fixedly installed by a fixed frame 1, and the external tank body 2 and the mesh tank body 3 are used to carry the recycled solid waste. The mesh tank body 3 is embedded in the interior of the external tank body 2. At the same time, the mesh outer wall of the mesh tank body 3 can drive the waste gas generated during the waste recycling process into the mesh tank body 3, and the spraying and spreading mechanism 5 installed above the mesh tank body 3 can spray a water column fusion agent into the center of the mesh tank body 3, and fully fuse it with the waste gas entering the mesh tank body 3 to avoid environmental pollution caused by waste gas emissions. The input guide mechanism 4 installed on the top of the external tank body 2 cooperates with the internally installed linkage crushing mechanism 7 to crush and refine the plastic waste, and the linkage crushing mechanism 7 follows the operation of the central adsorption mechanism 6 also installed on the input guide mechanism 4. The central adsorption The mechanism 6 itself operates in the mesh tank body 3 to generate a centrally concentrated adsorption wind force, and at the same time drives the linkage crushing mechanism 7 to operate in the input guide mechanism 4. The operating force generated by the central adsorption mechanism 6 forms an intermittent rotational torque through the intermittent transmission mechanism 9 to drive the linkage conduction mechanism 8 to operate in the gap area formed between the mesh tank body 3 and the external tank body 2, and drives the crushed fine plastic waste to be transported between the external tank body 2 and the mesh tank body 3 in a spiral conveying manner, and heats the fine waste transported to the inside of the external tank body 2 in a circular manner through the heating element installed on the outside of the external tank body 2, driving the waste to be melted and recycled.

[0047] Please see the attached Figure 1 -Attached Figure 10The input guide mechanism 4 is located on the external tank body 2, and is used to receive and carry the plastic waste to be crushed, and at the same time indirectly install the crushing structure and the feeding mechanism. The input guide mechanism 4 includes a feed volute 41, and the frame structure of the feed volute 41 is arranged at the top center of the feed volute 41. The feed volute 41 is fixedly connected to the top of the external tank body 2, and the embedded cylinder sleeve 42 is embedded in the outside of the feed volute 41, and an intermittent area is formed between the feed volute 41 and the feed volute 41. At the same time, it is fixed to the top of the external tank body 2 through the bracket structure, and the rail structure of the embedded cylinder sleeve 42 is embedded and fixed to the inner wall of the embedded cylinder sleeve 42, and the side ring sleeve 43 is fixedly connected to the inner wall of the feed volute 41 , and is located at the input port height of the feed volute 41. A circumferentially distributed strip-shaped crushing piece 44 is fixedly connected between the side ring sleeve 43 and the inner wall of the feed volute 41. The top and bottom of the strip-shaped crushing piece 44 are provided with a T-shaped grinding gear structure. The circumferentially distributed rotation of the linkage gear 45 is embedded in the inner wall of the side ring sleeve 43. The embedded cylinder sleeve 2 46 is fixedly sleeved on the side wall of the embedded cylinder sleeve 1 42. An annular filter disc 47 is slidably embedded in the bottom of the feed volute 41. The inner ring part of the annular filter disc 47 is provided with a nested structure and embedded in the embedded cylinder sleeve 2 46. At the same time, a retaining spring structure is provided between the inner wall of the embedded cylinder sleeve 2 46. The central adsorption mechanism 6 included in the overall equipment forms an adsorption on the mesh tank body 3 At the same time as the wind, it will synchronously drive the linkage crushing mechanism 7 to crush and refine the input plastic waste inside the input guide mechanism 4, and at the same time drive the linkage conduction mechanism 8 to transport the refined waste in an intermittent operation manner, thereby increasing the time for waste to be transported between the external tank body 2 and the mesh tank body 3, thereby simultaneously improving the effect of heating and recycling treatment. The input guide mechanism 4 includes a feed volute 41 body that is a volute-shaped structure and is installed at the top port of the mesh tank body 3, and the input guide mechanism 4 includes an embedded cylinder sleeve 42 that is embedded and fixed in the top input port of the mesh tank body 3, and at the same time, forms a direction between the external tank body 2 and the mesh tank body 3 with the feed volute 41. The guiding area between the two, and the side ring sleeve 43 installed on the inner wall of the feeding volute 41 serves as the synchronous embedding area of ​​the linkage crushing mechanism 7, inside which the circumferentially distributed linkage gears 45 are installed, and the circumferentially distributed strip crushing pieces 44 installed on the side ring sleeve 43 form a static disc-shaped cutting knife inside the feeding volute 41, and the separation area between the strip crushing pieces 44 can be used for the passage of the divided waste, and the embedded cylinder sleeve 2 46 installed on the bottom of the inner wall of the feeding volute 41 is embedded with the annular filter disc 47 for the final fine screening, and the overall spraying and evenly spreading mechanism 5 drives the cylinder frame structure through the top of the feeding volute 41 to be installed above the center of the overall recovery equipment structure.

[0048] Please see the attached Figure 1 -Attached Figure 6The spraying and evenly spreading mechanism 5 is located on the input guiding mechanism 4, and cooperates with the sleeve structure of the feeding volute 41 to spray the fusion agent required for adsorbing the exhaust gas. The spraying and evenly spreading mechanism 5 includes a gathering pipe 51 fixedly connected to the top sleeve structure of the feeding volute 41, and the bottom output port of the gathering pipe 51 is provided with a circumferentially distributed spray pipe 52. The gathering pipe 51 included in the spraying and evenly spreading mechanism 5 is fixed on the top cylinder frame structure of the feeding volute 41 and suspended directly above the mesh tank body 3. The gathering pipe 51 can draw in the fusion agent through an external pumping equipment, and use the spray pipe 52 installed in a circumferentially distributed form at the bottom output end of the gathering pipe 51 to spray it into the mesh tank body 3, and form a ring-shaped distributed water column to increase the adsorption contact area of ​​the exhaust gas.

[0049] Please refer to Figure *-Figure *, the central adsorption mechanism 6 is located on the input guide mechanism 4, and cooperates with the feed vortex casing 41 and the gathering pipe 51 to generate wind force that gathers toward the center, so as to suck the exhaust gas generated after the waste is heated. The central adsorption mechanism 6 includes a central shaft sleeve 61, and a gear ring structure for driving rotation is provided on the top of the central shaft sleeve 61. The rail structure of the central shaft sleeve 61 is embedded and fixed on the inner wall of the central shaft sleeve 61, and the extension ring structure of the central shaft sleeve 61 is fixed on the top of the central shaft sleeve 61 and extends to the area of ​​the linkage crushing mechanism 7. The central shaft sleeve 61 is embedded and rotated inside the side ring sleeve 43, and the interference ring 62 is sleeved and fixed on the middle part of the outer wall of the central shaft sleeve 61. The bottom ring 63 is sleeved and fixed on the bottom of the central shaft sleeve 61. The bottom of the central shaft sleeve 61 is fixedly connected with circumferentially distributed arc fan blades 64, and extends to the bottom of the mesh tank body 3. The two sides of the interference triangle block 65 are fixed on the bottom of the interference ring 62, and mainly as a whole The central adsorption mechanism 6 driven by the operation of the equipment is installed on the inner side of the embedded cylinder sleeve 42. The central adsorption mechanism 6 includes a central shaft sleeve 61 which is rotatably installed on the embedded cylinder sleeve 42 and is located at the positive axis of the equipment. The gear ring structure installed on the top of the central shaft sleeve 61 can drive the central shaft sleeve 61 to rotate inside the embedded cylinder sleeve 42 through the driving device, and the central shaft sleeve 61 simultaneously drives the linkage crushing mechanism 7 to rotate inside the feed volute 41 through the extension ring structure installed on the top. The interference ring 62 and the bottom ring 63 installed on the side wall of the central shaft sleeve 61 will rotate with the central shaft sleeve 61, and the interference triangle block 65 fixed on the bottom surface of the interference ring 62 will drive the linkage conduction mechanism 8 to operate intermittently through the intermittent transmission mechanism 9 while rotating. The arc-shaped fan blades 64 installed on the bottom of the bottom ring 63 extend to the inside of the mesh tank body 3, and rotate in contact with the inner wall of the mesh tank body 3, and form a suction wind force gathered toward the center on the inner wall of the mesh tank body 3.

[0050] Please see the attached Figure 1 -Attached Figure 11, the linkage crushing mechanism 7 is located on the input guide mechanism 4, and cooperates with the feed volute 41, the side ring sleeve 43, the linkage gear 45, the embedded cylinder sleeve 2 46 and the extended ring structure of the center shaft sleeve 61 to crush plastic solid waste. The linkage crushing mechanism 7 includes an embedded shaft sleeve 71, which is embedded and slid into the interior of the feed volute 41 and is simultaneously sleeved on the outer ring portion of the embedded cylinder sleeve 2 46. The top wall of the embedded shaft sleeve 71 is fixedly connected with a volute blade 72, which is located at the input port height of the feed volute 41. The side wall of the embedded shaft sleeve 71 is rotatably connected with a linkage turntable 73. The top wall of the linkage turntable 73 is provided with a circumferentially distributed grinding bar structure and a circumferentially distributed drop groove structure. The bottom of the linkage turntable 73 is fixedly connected with a circumferentially distributed embedded shaft sleeve 71. The bottom is fixedly connected to a bottom linkage disk 74, and the bottom of the bottom linkage disk 74 and the bottom of the linkage rotating disk 73 are fixedly connected with a cross-arranged and circumferentially distributed grinding column structure. The bottom linkage disk 74 is provided with a uniformly distributed small mesh structure, and the outer ring portion of the linkage rotating disk 73 and the outer ring portion of the bottom linkage disk 74 are provided with relatively distributed gear structures, and are embedded in the side ring sleeve 43 at the same time. The gear structures of the outer ring portion of the linkage rotating disk 73 and the bottom linkage disk 74 are meshed and connected to the tooth keys on both sides of the linkage gear 45, and the linkage crushing mechanism 7 that operates with the extension ring structure of the center sleeve 61 is embedded and installed in the feed volute 41, and the embedded shaft sleeve 71 included in the linkage crushing mechanism 7 is embedded and fits to the inner wall of the feed volute 41, and is fixed to the extension of the center sleeve 61 The outer ring portion of the ring structure operates by following the rotation of the central shaft sleeve 61. The vortex blades 72 installed on the top surface of the embedded shaft sleeve 71 are located at the height of the input port of the feed volute 41 and are at the same time attached to the top surface of the strip crushing piece 44. When the vortex blades 72 rotate, axial downward pressure will be generated. When the plastic solid waste enters along the input port of the feed volute 41, the axial downward pressure formed by the vortex blades 72 will drive the waste to press down and contact the top surface of the circumferentially distributed strip crushing pieces 44, and be initially cut and crushed by the strip crushing pieces 44. The initially crushed waste formed falls along the gaps between the strip crushing pieces 44 onto the linkage turntable 73 included in the linkage crushing mechanism 7, and the linkage turntable 73 installed on the side wall of the embedded shaft sleeve 71 will move along the side wall of the embedded shaft sleeve 71. The bottom linkage disk 74 statically installed at the bottom of the embedded shaft sleeve 71 is located below the linkage rotary disk 73 and above the annular filter plate 47. The bottom linkage disk 74 and the gear ring structure installed on the outer ring of the linkage rotary disk 73 are embedded in the side ring sleeve 43 at the same time and mesh with the two sides of the linkage gear 45. When the bottom linkage disk 74 rotates with the embedded shaft sleeve 71, the bottom linkage disk 74 guides the rotation torque in the opposite direction to the linkage rotary disk 73 through the meshing linkage gear 45, so as to drive the linkage rotary disk 73 to rotate in the opposite direction to the bottom linkage disk 74 on the rotation axis of the embedded shaft sleeve 71, and the grinding bar structure installed on the linkage rotary disk 73 is attached to the bottom surface of the strip crushing member 44. After the initial crushed waste falls onto the linkage rotary disk 73,Driven by the rotation of the linkage turntable 73, the waste will undergo centrifugal motion and continue to directly impact and contact the bottom surface of the bar crushing element 44 with the grinding bar structure of the linkage turntable 73, thereby undergoing secondary impact crushing. When the waste reaches the passing size of the drop chute structure installed on the linkage turntable 73, it will fall onto the bottom linkage turntable 74 and contact the grinding column structure installed on the top surface of the bottom linkage turntable 74 and the bottom surface of the linkage turntable 73. The bottom linkage turntable 74 and the linkage turntable 73 rotating in opposite directions drive the secondary crushed waste to repeatedly contact and grind between the linkage turntable 73 and the bottom linkage turntable 74. After the waste is refined to the small mesh size that meets the requirements of the bottom linkage turntable 74, it falls onto the annular filter plate 47, and finally passes through the screening of the annular filter plate 47 and falls onto the linkage transmission mechanism 8 embedded between the external tank body 2 and the mesh tank body 3.

[0051] Please see the attached Figure 1 -Attached Figure 15 The linkage transmission mechanism 8 is located on the mesh tank body 3, and cooperates with the embedded cylinder sleeve 42 and the bottom ring 63 for intermittently conveying the crushed solid waste. The linkage transmission mechanism 8 includes an embedded turntable 81, and the outer ring of the embedded turntable 81 is fixedly connected to the spiral conveying channel 82, which is embedded and fits between the external tank body 2 and the mesh tank body 3. The top of the embedded turntable 81 is fixedly connected to the linkage sleeve 83, and fits and rotates on the inner wall of the embedded cylinder sleeve 42. The irregular cone blocks 84 are circumferentially distributed and fixedly connected to the top of the inner wall of the linkage sleeve 83 to form a circumferentially distributed inline groove structure on the inner wall of the linkage sleeve 83. The bottom surface of the irregular cone blocks 84 is provided with inclined surfaces of different angles on both sides, and the inner wall of the linkage sleeve 83 is provided with circumferentially distributed V-shaped limiting grooves 85, which correspond to the number of irregular cone blocks 84 and are located below the irregular cone blocks 84. The embedded turntable 81 included in the linkage transmission mechanism 8 is rotatably mounted on the mesh tank body The mesh tank body 3 is on the outer ring part of the bottom ring 63, and the spiral feed channel 82 installed on the outside of the embedded turntable 81 is a spiral structure, and is embedded in the gap area between the external tank body 2 and the mesh tank body 3. The refined waste filtered by the annular filter disc 47 falls onto the spiral feed channel 82 along the embedded sleeve 42 and the feed volute 41, and the linkage sleeve 83 installed on the top of the embedded turntable 81 extends to the outside of the central shaft sleeve 61. The inner wall of the linkage sleeve 83 forms a plurality of groups of circumferentially distributed inline groove structures through circumferentially distributed irregular cone blocks 84, and the inline groove structure extends and docks to the V-shaped limit groove 85 installed on the inner wall of the linkage sleeve 83 at the same time. The two inclined surfaces of the irregular cone block 84 are fixed on the V-shaped limit groove 85 at different angles, so that output end grooves of different sizes on both sides are formed between the V-shaped limit groove 85 and the corresponding irregular cone block 84, and docked with the intermittent transmission mechanism 9.

[0052] Please see the attached Figure 1 -Attached Figure 16The intermittent transmission mechanism 9 is located on the central adsorption mechanism 6, and cooperates with the central shaft sleeve 61, the rail structure of the embedded cylinder sleeve 42, the interference ring 62, the interference triangle block 65, the linkage sleeve 83, the irregular cone block 84 and the V-shaped limit groove 85 to form an intermittent rotation driving force for the spiral conveyor. The intermittent transmission mechanism 9 includes a lower pressure sleeve 91, which is sleeved and fixed on the outer wall of the central shaft sleeve 61 and is located below the interference ring 62 and above the bottom ring 63. The top of the lower pressure sleeve 91 is fixedly connected to a top contact disk 92, and a retaining spring structure is embedded between the top contact disk 92 and the top wall of the bottom ring 63. The side walls of the lower pressure sleeve 91 are fixed with two sides. The top of the pressing sleeve 91 is fixedly connected to a trapezoidal pressing block 94, and the top contact plate 92 is provided with relative embedding grooves on both sides. The top contact plate 92 is engaged with the rail structure of the embedded sleeve 42 through the embedding grooves, and the pressing sleeve 91 included in the intermittent transmission mechanism 9 is sleeved on the outside of the central sleeve 61. The top contact plate 92 fixed on the top of the pressing sleeve 91 and the trapezoidal pressing block 94 installed on the top surface of the top contact plate 92 are fitted on the bottom surface of the interference ring 62 and the interference triangle block 65, and the top contact plate 92 itself is engaged with the stationary rail structure of the embedded sleeve 42 through the installed embedding grooves, so that the pressing sleeve 91 and the top contact plate 92 are only engaged with the rail structure of the embedded sleeve 42. The cam 93 is a substantially rectangular shaped piece of metal that is fixed to the bottom of the sleeve 83 and is secured to the bottom of the sleeve 83. The cam 93 is a substantially rectangular shaped piece of metal that is fixed to the bottom of the sleeve 83 and is secured to the bottom of the sleeve 83. The cam 93 is a substantially rectangular shaped piece of metal that is fixed to the bottom of the sleeve 83 and is secured to the bottom of the sleeve 83. The cam 93 is a substantially rectangular shaped piece of metal that is fixed to the bottom of the sleeve 83 and is secured to the bottom of the sleeve 83. The cam 93 is a substantially rectangular shaped piece of metal that is fixed to the bottom of the sleeve 83 and is secured to the bottom of the sleeve 83. When descending and rising, the inclined surfaces of different sizes between the irregular cone blocks 84 and the V-shaped limit grooves 85 will drive the irregular cone blocks 84 and the V-shaped limit grooves 85 to drive the linkage sleeve 83 to rotate, and drive the embedded clamping shaft 93 to reach between the next set of irregular cone blocks 84 and the V-shaped limit grooves 85. As the downward pressure sleeve 91 and the top contact plate 92 reciprocate and descend, the linkage sleeve 83 will drive the embedded turntable 81 and the spiral feed channel 82 to rotate intermittently, and the refined waste will slowly and synchronously fall through the intermittently rotating linkage sleeve 83, thereby increasing the heat contact time of the waste and improving the melting and recycling efficiency of plastic solid waste.

[0053] Working principle: First, the equipment is mainly used for crushing and liquefying solid waste for recycling. The overall structure is fixedly installed by a fixed frame 1, and uses an external tank body 2 and a mesh tank body 3 to carry out recycling. The mesh tank body 3 is embedded in the interior of the external tank body 2. At the same time, the mesh outer wall of the mesh tank body 3 can drive the waste gas generated during the waste recycling process into the mesh tank body 3, and the spraying and spreading mechanism 5 installed above the mesh tank body 3 can spray a water column fusion agent into the center of the mesh tank body 3, and fully fuse it with the waste gas entering the mesh tank body 3 to avoid environmental pollution caused by waste gas emissions. The input guide mechanism 4 installed on the top of the external tank body 2 cooperates with the internally installed linkage crushing mechanism 7 to crush and refine the plastic waste. The linkage crushing mechanism 7 operates following the central adsorption mechanism 6 which is also installed on the input guide mechanism 4. The central adsorption mechanism 6 operates in the mesh tank body 3 to generate a centrally concentrated adsorption wind force, and at the same time drives the linkage crushing mechanism 7 to operate in the input guide mechanism 4. The operating force generated by the central adsorption mechanism 6, at the same time, forms an intermittent rotational torque through the intermittent transmission mechanism 9 to drive the linkage conduction mechanism 8 to operate in the gap area formed between the mesh tank body 3 and the external tank body 2. The crushed fine plastic waste is driven to be transported between the external tank body 2 and the mesh tank body 3 in a spiral conveying manner, and the refined waste transported to the inside of the external tank body 2 is heated in a circumferential manner by the heating element installed on the outside of the external tank body 2, driving the waste to be melted and recycled. The central adsorption mechanism 6 included in the overall equipment will simultaneously drive the linkage crushing mechanism 7 to crush and refine the input plastic waste inside the input guide mechanism 4 while forming an adsorption wind force in the mesh tank body 3, and at the same time drive the linkage conduction mechanism 8 to transport the refined waste in an intermittent operation manner, thereby increasing the time for waste to be transported between the external tank body 2 and the mesh tank body 3, thereby simultaneously improving the effect of heating and recycling treatment. The input guide mechanism 4 includes a feed volute 41 with a volute-shaped structure and is installed at the top port of the mesh tank body 3, and the embedded cylinder sleeve 42 included in the input guide mechanism 4 is embedded and fixed in the top input port of the mesh tank body 3, while forming a guide between the external tank body 2 and the mesh tank body 3 with the feed volute 41. The area, and the side ring sleeve 43 installed on the inner wall of the feed volute 41 serves as the synchronous embedding area of ​​the linkage crushing mechanism 7, and the circumferentially distributed linkage gears 45 are installed inside it, and the circumferentially distributed strip crushing pieces 44 installed on the side ring sleeve 43 form a static disc-shaped cutting knife inside the feed volute 41, and the separation area between the strip crushing pieces 44 can be used for the separation of waste, and the embedded cylinder sleeve 2 46 installed on the bottom of the inner wall of the feed volute 41 is embedded with the annular filter disc 47 for the final fine screening. The overall spray and evenly spread mechanism 5 drives the drum frame structure through the top of the feed volute 41 to be installed above the center of the overall recovery equipment structure. The gathering pipe 51 included in the spray and evenly spread mechanism 5 is fixed on the top drum frame structure of the feed volute 41.It is suspended just above the mesh tank body 3, and the gathering pipe 51 can draw in the fusion agent through an external pumping device, and use the spray pipe 52 installed in a circumferential distribution at the bottom output end of the gathering pipe 51 to spray it into the mesh tank body 3, and form a ring-shaped distributed water column to increase the adsorption contact area of ​​the exhaust gas, and the central adsorption mechanism 6, which mainly drives the operation of the entire equipment, is installed on the inner side of the embedded sleeve 42. The central shaft sleeve 61 included in the central adsorption mechanism 6 is rotatably installed on the embedded sleeve 42 and is located at the positive axis of the equipment, and the gear ring structure installed on the top of the central shaft sleeve 61 can drive the central shaft sleeve 61 to rotate inside the embedded sleeve 42 through the driving device, and the central shaft sleeve 61 simultaneously drives the linkage crushing mechanism through the extension ring structure installed on the top. 7 rotates inside the feed volute 41, and the friction ring 62 and the bottom ring 63 installed on the side wall of the central sleeve 61 will rotate with the central sleeve 61, and the friction triangle block 65 fixed on the bottom surface of the friction ring 62 will drive the linkage transmission mechanism 8 to operate intermittently through the intermittent transmission mechanism 9 while rotating, and the arc-shaped fan blades 64 installed at the bottom of the bottom ring 63 extend to the inside of the mesh tank body 3, and rotate in accordance with the inner wall of the mesh tank body 3, and form a suction wind force gathered toward the center on the inner wall of the mesh tank body 3, and the linkage crushing mechanism 7 that operates with the extension ring structure of the central sleeve 61 is embedded and installed in the feed volute 41, and the embedded sleeve 71 included in the linkage crushing mechanism 7 is embedded and fitted to the inner wall of the feed volute 41, and is fixed to the extension of the central sleeve 61. The outer ring portion of the ring structure operates by following the rotation of the central shaft sleeve 61. The vortex blades 72 installed on the top surface of the embedded shaft sleeve 71 are located at the height of the input port of the feed volute 41 and are at the same time attached to the top surface of the strip crushing piece 44. When the vortex blades 72 rotate, axial downward pressure will be generated. When the plastic solid waste enters along the input port of the feed volute 41, the axial downward pressure formed by the vortex blades 72 will drive the waste to press down and contact the top surface of the circumferentially distributed strip crushing pieces 44, and be initially cut and crushed by the strip crushing pieces 44. The initially crushed waste formed falls along the gaps between the strip crushing pieces 44 onto the linkage turntable 73 included in the linkage crushing mechanism 7, and the linkage turntable 73 installed on the side wall of the embedded shaft sleeve 71 will move along the side wall of the embedded shaft sleeve 71. The bottom linkage disk 74 statically installed at the bottom of the embedded shaft sleeve 71 is located below the linkage rotary disk 73 and above the annular filter plate 47. The bottom linkage disk 74 and the gear ring structure installed on the outer ring of the linkage rotary disk 73 are embedded in the side ring sleeve 43 at the same time and mesh with the two sides of the linkage gear 45. When the bottom linkage disk 74 rotates with the embedded shaft sleeve 71, the bottom linkage disk 74 guides the rotation torque in the opposite direction to the linkage rotary disk 73 through the meshing linkage gear 45, so as to drive the linkage rotary disk 73 to rotate in the opposite direction to the bottom linkage disk 74 on the rotation axis of the embedded shaft sleeve 71, and the grinding bar structure installed on the linkage rotary disk 73 is attached to the bottom surface of the strip crushing member 44. After the initial crushed waste falls onto the linkage rotary disk 73,The waste is then crushed by the rollers 74 and the rollers 76, and the waste is then crushed by the rollers 77. The rollers 77 are then crushed by the rollers 78, and the rollers 79 are then crushed by the rollers 80. The mesh tank body 3 is embedded in the linkage transmission mechanism 8, and the embedded turntable 81 included in the linkage transmission mechanism 8 is rotatably installed on the mesh tank body 3 and is located at the outer ring part of the bottom ring 63. The spiral feed channel 82 installed on the outside of the embedded turntable 81 is a spiral structure and is embedded in the gap area between the external tank body 2 and the mesh tank body 3. The refined waste filtered by the annular filter disc 47 falls onto the spiral feed channel 82 along the embedded sleeve 42 and the feed volute 41, and the linkage sleeve 83 installed on the top of the embedded turntable 81 extends to the outside of the central shaft sleeve 61. The inner wall of the linkage sleeve 83 forms a plurality of groups of circumferentially distributed inline groove structures through circumferentially distributed irregular cone blocks 84, and the inline groove structure extends and docks to the inner wall of the linkage sleeve 83 at the same time. On the added V-shaped limit groove 85, the two inclined surfaces of the irregular cone block 84 are fixed on the V-shaped limit groove 85 at different angles, so that the V-shaped limit groove 85 and the corresponding irregular cone block 84 form output end grooves of different sizes on both sides, and dock with the intermittent transmission mechanism 9, and the intermittent transmission mechanism 9 includes a downward pressure sleeve 91 which is sleeved on the outside of the center sleeve 61, and the top contact plate 92 fixed on the top of the downward pressure sleeve 91 and the trapezoidal downward pressure block 94 installed on the top surface of the top contact plate 92 are fitted on the bottom surface of the interference ring 62 and the interference triangle block 65, and the top contact plate 92 itself is engaged with the static rail structure of the embedded sleeve 42 through the added embedded groove, so that the downward pressure sleeve 91 and the top contact plate 92 can only move up and down along the inner wall of the static embedded sleeve 42, and ... The embedded card shaft 93 installed on the outer wall of the pressure sleeve 91 is embedded in the groove formed by the irregular cone block 84 and the V-shaped limit groove 85 on the inner wall of the linkage sleeve 83. At the same time, the top contact plate 92 can realize rebound reset through the retaining spring structure installed between it and the bottom ring 63. When the center sleeve 61 drives the resistance ring 62 to rotate, the resistance triangle block 65 will continue to contact the trapezoidal downward pressure block 94 on the top surface of the top contact plate 92, and continue to push the downward pressure sleeve 91, the top contact plate 92 and the embedded card shaft 93 to descend. When the embedded card shaft 93 descends and rises along the groove formed by a group of irregular cone blocks 84 and V-shaped limit grooves 85, the inclined surfaces of different sizes between the irregular cone block 84 and the V-shaped limit grooves 85 will drive the irregular cone block 84 and the V-shaped limit grooves 85 to drive the linkage sleeve 83 to rotate.The embedded clamping shaft 93 is driven to the next set of irregular cone blocks 84 and the V-shaped limit groove 85. As the downward pressure sleeve 91 and the top contact plate 92 reciprocate and descend, the linkage sleeve 83 drives the embedded turntable 81 and the spiral conveyor 82 to rotate intermittently. The refined waste will slowly and synchronously fall through the intermittently rotating linkage sleeve 83, thereby increasing the thermal contact time of the waste and improving the melting and recycling efficiency of the plastic solid waste.

[0054] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. An environmentally friendly solid waste recycling and processing equipment, characterized in that: include: A fixed frame (1) is used for fixing the structure of the solid waste recycling and processing equipment; The external tank (2) is located on the fixed frame (1) and is used to receive and transport the plastic solid waste after crushing; The mesh tank body (3) is located on the external tank body (2) and is used to receive the waste gas generated by heating the waste in the form of infiltration; The input guide mechanism (4) is located on the external tank body (2) and is used to receive and carry the plastic waste to be crushed, and is also indirectly installed with the crushing structure and the feeding mechanism; The spraying and spreading mechanism (5) is located on the input guide mechanism (4) and cooperates with the sleeve structure of the feed volute (41) to spray the fusion agent required for adsorbing the exhaust gas; The central adsorption mechanism (6) is located on the input guide mechanism (4) and cooperates with the feed volute (41) and the gathering pipe (51) to generate wind force that gathers toward the center, so as to absorb the waste gas generated by the heating of the waste; The linkage crushing mechanism (7) is located on the input guide mechanism (4) and is used to crush plastic solid waste by cooperating with the feed volute (41), the side ring sleeve (43), the linkage gear (45), the second embedded cylinder sleeve (46) and the extended ring structure of the central shaft sleeve (61); The linkage transmission mechanism (8) is located on the mesh tank body (3), and cooperates with the embedded cylinder sleeve (42) and the bottom ring (63) to intermittently transport the crushed solid waste; The intermittent transmission mechanism (9) is located on the central adsorption mechanism (6), and cooperates with the central shaft sleeve (61), the rail structure of the embedded cylinder sleeve (42), the interference ring (62), the interference triangle block (65), the linkage sleeve (83), the irregular cone block (84) and the V-shaped limit groove (85) to form an intermittent rotation driving force for the spiral conveying.

2. The environmentally friendly solid waste recycling and processing equipment according to claim 1, characterized in that: The external tank body (2) is fixedly connected to the fixed frame (1); a circumferentially distributed heating element is provided on the side of the external tank body (2); the mesh tank body (3) is embedded and fixed inside the external tank body (2) and forms a gap area with the inner wall of the external tank body (2); the bottom of the mesh tank body (3) is provided with a bucket structure and a discharge pipe structure; the input guide mechanism (4) is arranged at the top input port of the external tank body (2); the spraying and spreading mechanism (5) is arranged at the top center of the input guide mechanism (4); the central adsorption mechanism (6) is embedded in the input guide mechanism (4) and extends into the mesh tank body (3); the linkage crushing mechanism (7) is embedded in the input guide mechanism (4); the linkage conduction mechanism (8) is arranged on the input guide mechanism (4) and extends into the gap area between the external tank body (2) and the mesh tank body (3).

3. The environmentally friendly solid waste recycling and processing equipment according to claim 1, characterized in that: The input guide mechanism (4) includes an inlet volute (41), a sleeve structure of the inlet volute (41) is arranged at the top center of the inlet volute (41), the inlet volute (41) is fixedly connected to the top of the external tank body (2), the embedded sleeve (42) is embedded and arranged outside the inlet volute (41), and forms an intermittent area between the inlet volute (41) and the inlet volute (41), and is fixed to the top of the external tank body (2) through the bracket structure, the rail structure of the embedded sleeve (42) is embedded and fixed to the inner wall of the embedded sleeve (42), and the side ring (43) is fixedly connected to the inner wall of the inlet volute (41) and is located at the inlet volute (41). The height of the input port, the side ring sleeve (43) and the inner wall of the feed volute (41) are fixedly connected with a circumferentially distributed strip-shaped crushing piece (44), the top and bottom of the strip-shaped crushing piece (44) are both provided with a T-shaped grinding gear structure, the circumferentially distributed rotation of the linkage gear (45) is embedded in the inner wall of the side ring sleeve (43), the embedded cylinder sleeve 2 (46) is fixedly sleeved on the side wall of the embedded cylinder sleeve 1 (42), and the bottom of the feed volute (41) is slidably embedded with an annular filter disc (47), the inner ring of the annular filter disc (47) is provided with a nesting structure, and is embedded in the embedded cylinder sleeve 2 (46), and a retaining spring structure is provided between the inner wall of the embedded cylinder sleeve 2 (46).

4. The environmentally friendly solid waste recycling and processing equipment according to claim 1, characterized in that: The spraying and spreading mechanism (5) comprises a gathering pipe (51) fixedly connected to the top sleeve structure of the inlet volute (41), and the bottom output port of the gathering pipe (51) is provided with circumferentially distributed spraying pipes (52).

5. The environmentally friendly solid waste recycling and processing equipment according to claim 1, characterized in that: The central adsorption mechanism (6) includes a central shaft sleeve (61), a gear ring structure for driving rotation is provided on the top of the central shaft sleeve (61), an extension ring structure of the central shaft sleeve (61) is fixed on the top of the central shaft sleeve (61) and extends to the area of ​​the linkage crushing mechanism (7), the central shaft sleeve (61) is embedded and rotated inside the side ring sleeve (43), the interference ring (62) is sleeved and fixed on the middle part of the outer wall of the central shaft sleeve (61), the bottom ring (63) is sleeved and fixed on the bottom of the central shaft sleeve (61), the bottom of the central shaft sleeve (61) is fixedly connected with circumferentially distributed arc-shaped fan blades (64) and extends to the bottom of the mesh tank body (3), and the two sides of the interference triangle block (65) are fixed to the bottom of the interference ring (62) opposite to each other.

6. The environmentally friendly solid waste recycling and processing equipment according to claim 1, characterized in that: The linkage crushing mechanism (7) includes an embedded shaft sleeve (71), which is embedded and slid into the interior of the feed volute (41) and is simultaneously sleeved on the outer ring portion of the embedded sleeve (46). The top wall of the embedded shaft sleeve (71) is fixedly connected with a vortex fan blade (72), and the vortex fan blade (72) is located at the height of the input port of the feed volute (41). The side wall of the embedded shaft sleeve (71) is rotatably connected with a linkage turntable (73). The top wall of the linkage turntable (73) is provided with a circumferentially distributed grinding bar structure and a circumferentially distributed falling groove structure. The bottom of the linkage turntable (73) is fixedly connected with a circumferentially distributed The bottom of the embedded shaft sleeve (71) is fixedly connected to a bottom linkage disk (74), and the bottom of the bottom linkage disk (74) and the bottom of the linkage rotating disk (73) are fixedly connected to a cross-arranged and circumferentially distributed grinding column structure. The bottom linkage disk (74) is provided with a uniformly distributed small mesh structure. The outer ring portion of the linkage rotating disk (73) and the outer ring portion of the bottom linkage disk (74) are provided with relatively distributed gear structures and are embedded in the side ring sleeve (43) at the same time. The gear structures of the outer ring portion of the linkage rotating disk (73) and the bottom linkage disk (74) are meshed and connected to the tooth keys on both sides of the linkage gear (45).

7. The environmentally friendly solid waste recycling and processing equipment according to claim 1, characterized in that: The linkage transmission mechanism (8) includes an embedded turntable (81), the outer ring of the embedded turntable (81) is fixedly connected to a spiral conveying channel (82), and the spiral conveying channel (82) is embedded and fitted between the external tank body (2) and the mesh tank body (3). The top of the embedded turntable (81) is fixedly connected to a linkage sleeve (83) and is fitted and rotated on the inner wall of the embedded sleeve sleeve (42).

8. The environmentally friendly solid waste recycling and processing equipment according to claim 1, characterized in that: The intermittent transmission mechanism (9) comprises a downward pressure sleeve (91), which is sleeved and fixed on the outer wall of the central sleeve (61) and is located below the contact ring (62) and above the bottom ring (63). The top of the downward pressure sleeve (91) is fixedly connected to a top contact disk (92), and a retaining spring structure is embedded between the top contact disk (92) and the top wall of the bottom ring (63). The side walls of the downward pressure sleeve (91) are fixed with embedded clamping shafts (93) on both sides opposite to each other. The top of the downward pressure sleeve (91) is fixedly connected to a trapezoidal downward pressure block (94).

9. The environmentally friendly solid waste recycling and processing equipment according to claim 7, characterized in that: The irregular cone blocks (84) are circumferentially distributed and fixedly connected to the top of the inner wall of the linkage sleeve (83) to form a circumferentially distributed inline groove structure on the inner wall of the linkage sleeve (83). The bottom surface of the irregular cone blocks (84) is provided with inclined surfaces of different angles on both sides. The inner wall of the linkage sleeve (83) is provided with circumferentially distributed V-shaped limiting grooves (85), which correspond to the number of the irregular cone blocks (84) and are located below the irregular cone blocks (84).

10. The environmentally friendly solid waste recycling and processing equipment according to claim 8, characterized in that: The top contact plate (92) is provided with embedding grooves on two opposite sides, and the top contact plate (92) is engaged with the rail structure of the embedded tube sleeve (42) through the embedding grooves.

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