Feeding device for continuous low-temperature carbonization of fungus materials

Abstract

The invention discloses a feeding device for continuous low-temperature carbonization of fungus materials, and relates to the technical field of feeding, the feeding device comprises a crushing and grading assembly which is provided with an input port and three output ports, and the input port is connected with a fungus material input assembly, a small fungus material mixing conveying belt and a large fungus material backflow conveyor; three output ports of the crushing and grading assembly are connected with a dehumidification output assembly, a large fungus material backflow conveyor and a small fungus material output conveying belt correspondingly, the output end of the small fungus material output conveying belt is embedded in a small fungus material mixer, and a fungus material adhesive tank is fixedly assembled on the upper surface of the small fungus material mixer. And the output end of the dehumidification output assembly is connected with a fungus material continuous low-temperature carbonization assembly, the whole feeding work can be automatically completed, and fungus materials can be pretreated while the feeding work is completed.

Description

Technical Field

[0001] The present invention relates to the technical field of feeding, and specifically relates to a feeding device for continuous low-temperature carbonization of fungus materials. Background Art

[0002] Low-temperature carbonization of fungus materials refers to the process of pyrolyzing fungus materials under the condition of controlling the oxygen content within a certain temperature range (usually lower than the temperature required for traditional high-temperature carbonization). This can improve the resource utilization rate of fungus materials, reduce environmental pollution, and simultaneously produce biochar or other carbonized products with specific properties.

[0003] The fungus material raw materials required for carbonization need to be kept dry to prevent excessive water content from increasing the energy consumption and cost during the carbonization process, and may also affect the yield and properties of biochar. At the same time, the physical form of the raw materials (such as particle size, shape, etc.) also affects the carbonization process and the yield and properties of biochar. And too small raw materials will increase the fly ash loss during the reaction process or cause side reactions, etc. Existing feeding devices cannot effectively process fungus materials.

[0004] Therefore, it is necessary to provide a feeding device for continuous low-temperature carbonization of fungus materials to solve the above problems. Summary of the Invention

[0005] To achieve the above object, the present invention provides the following technical solution. A feeding device for continuous low-temperature carbonization of fungus materials includes: A crushing and grading component, which is provided with an input port and three output ports. The input port is connected to a fungus material input component, a small-piece fungus material mixing conveyor belt, and a large-piece fungus material return conveyor. The three output ports of the crushing and grading component are respectively connected to a dehumidification output component, a large-piece fungus material return conveyor, and a small-piece fungus material output conveyor belt. The output end of the small-piece fungus material output conveyor belt is embedded in a small-piece fungus material mixer, and a fungus material adhesive tank is fixedly assembled on the upper surface of the small-piece fungus material mixer; The output end of the dehumidification output component is connected to a fungus material continuous low-temperature carbonization component; The crushing and grading component includes: A fixed support frame, on which a crushing component is fixedly embedded. A crushing driver is arranged on one side of the crushing component, and the crushing driver is fixedly assembled on the upper surface of the fixed support frame; A heating and dehumidification tank, which is fixedly assembled directly above the crushing component. The input end and the output end of an air dryer are arranged inside it, and the air dryer is fixedly assembled on the upper surface of the fixed support frame; A grading component, which is fixedly embedded on the fixed support frame, and the input end of the grading component is arranged directly below the crushing driver; A control panel, which is fixedly assembled on the upper surface of the fixed support frame.

[0006] Preferably, the heating and dehumidifying tank includes: A drying tank, fixedly assembled directly above the crushing assembly. A spiral conveyor belt is fixedly assembled inside the drying tank. The spiral conveyor belt has a main input port on the upper surface of the drying tank and a falling port on the lower surface of the drying tank. And the input end and output end of an air dryer are arranged inside the drying tank; A secondary input port, fixedly assembled on one side surface of the main input port.

[0007] Preferably, the upper end of the main input port is fixedly connected to the output end of a large-piece fungus material return conveyor; The upper end of the secondary input port is provided with the output end of a fungus material input assembly and a small-piece fungus material mixing conveyor belt.

[0008] Preferably, the grading assembly includes: A fixed bracket, the upper surface of which is inclined, and a rotation driver is fixedly assembled along the inclined plane direction. Two rotation rings are rotationally engaged in the middle of the rotation driver, and the two rotation rings are perpendicular to the fixed bracket; A small-piece fungus material bearing sleeve, rotatably arranged between the two rotation rings, and the small-piece fungus material bearing sleeve is fixedly assembled on the fixed bracket; A uniform fungus material bearing sleeve net and a large-piece fungus material bearing sleeve net are fixedly assembled between the two rotation rings; The central axes of the small-piece fungus material bearing sleeve, the uniform fungus material bearing sleeve net and the large-piece fungus material bearing sleeve net coincide and are all parallel to the middle line of the inclined plane of the fixed bracket.

[0009] Preferably, a small-piece fungus material output port is arranged below the end of the small-piece fungus material bearing sleeve closer to the horizontal plane, and the input end of a small-piece fungus material output conveyor belt is arranged directly below the small-piece fungus material output port.

[0010] Preferably, the surfaces of the uniform fungus material bearing sleeve net and the large-piece fungus material bearing sleeve net are provided with uniform material discharge holes, and the aperture of the material discharge holes of the large-piece fungus material bearing sleeve net is larger than the aperture of the material discharge holes of the uniform fungus material bearing sleeve net.

[0011] Preferably, a uniform fungus material output port is rotatably arranged on the side of the uniform fungus material bearing sleeve net closer to the horizontal plane. The uniform fungus material output port is a double-layer sleeve, the inner layer of which is fixed on the side of the large-piece fungus material bearing sleeve net closer to the horizontal plane. The uniform fungus material output port is fixedly assembled on the fixed bracket, and the input end of a dehumidifying output assembly is arranged directly below the uniform fungus material output port.

[0012] Preferably, a crushed mushroom material input port is rotatably assembled on the side of the large mushroom material carrying net that is farther from the horizontal plane, and the crushed mushroom material input port is fixedly assembled directly below the crushing assembly; A large mushroom material output port is rotatably assembled on the side of the large mushroom material carrying net that is closer to the horizontal plane. The large mushroom material output port is fixedly embedded in the uniform mushroom material output port and is connected to the input end of a large mushroom material return conveyor.

[0013] Preferably, the dehumidification output assembly includes: A secondary dryer, the input end of which is fixedly assembled with a closed shell. An output belt is horizontally arranged inside the secondary dryer. A mushroom material falling port is opened on the closed shell above the input end of the output belt, and the mushroom material falling port is directly below the uniform mushroom material output port; A parameter regulator is fixedly assembled on the upper surface of the secondary dryer; A mushroom material continuous low-temperature carbonization assembly is connected to the output end of the output belt.

[0014] Compared with the prior art, the present invention provides a feeding device for continuous low-temperature carbonization of mushroom materials, having the following beneficial effects: The present invention can adjust the sizes of each component according to actual working requirements, so that the device can meet different feeding needs. At the same time, the device can automatically complete the entire feeding work, and will pre-treat the mushroom materials while completing the feeding work to make them meet the drying requirements, and then perform crushing treatment on them, and classify the crushed mushroom materials to obtain mushroom materials with uniform particle sizes. And a dehumidification output assembly is provided, which will further dry the obtained mushroom materials with uniform particle sizes to prevent the humidity of the mushroom materials inside from not meeting the standard after the large mushroom materials are crushed in the drying treatment of the crushing and classification assembly, thereby affecting the carbonization efficiency and quality. At the same time, the mushroom materials larger than the set size separated by the crushing and classification assembly will enter the crushing and classification assembly again through the large mushroom material return conveyor for crushing treatment, and the mushroom materials smaller than the size requirement will be conveyed to the small mushroom material mixer through the small mushroom material output conveyor belt. Then, the small mushroom material mixer adds adhesives through the mushroom material adhesive tank for polymerization treatment, and then the polymerized mushroom materials are conveyed to the crushing and classification assembly through the small mushroom material mixing conveyor belt for secondary treatment, saving costs to the greatest extent and reducing resource consumption. Description of the Drawings

[0015] Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 It is a schematic diagram of the structure of the crushing and classification assembly in the present invention; Figure 3 It is a schematic diagram of the structure of the heating and dehumidification tank in the present invention; Figure 4Schematic diagram of the grading component in the present invention; Figure 5 Schematic diagram of the dehumidification output component in the present invention; In the figure: 1. Crushing and grading component; 2. Dehumidification output component; 3. Large-piece fungus material reflux conveyor; 4. Small-piece fungus material output conveyor belt; 5. Small-piece fungus material mixer; 6. Small-piece fungus material mixing conveyor belt; 7. Fungus material adhesive tank; 11. Fixed support frame; 12. Crushing component; 13. Heating and dehumidification tank; 14. Grading component; 15. Crushing driver; 16. Control panel; 17. Air dryer; 131. Drying tank; 132. Main input port; 133. Sub-input port; 134. Screw conveyor belt; 141. Fixed bracket; 142. Rotating driver; 143. Rotating ring; 144. Small-piece fungus material bearing sleeve; 145. Uniform fungus material bearing sleeve net; 146. Large-piece fungus material bearing sleeve net; 147. Small-piece fungus material output port; 148. Crushed fungus material input port; 149. Large-piece fungus material output port; 1410. Uniform fungus material output port; 21. Secondary dryer; 22. Enclosed shell; 23. Output belt; 24. Fungus material falling port; 25. Parameter regulator. Detailed implementation manners

[0016] Please refer to Figures 1 to 5 , the present invention provides a feeding device for continuous low-temperature carbonization of fungus material, including: The crushing and grading component 1 is provided with one input port and three output ports. The input port is connected to a fungus material input component, a small-piece fungus material mixing conveyor belt 6 and a large-piece fungus material reflux conveyor 3. The three output ports of the crushing and grading component 1 are respectively connected to a dehumidification output component 2, a large-piece fungus material reflux conveyor 3 and a small-piece fungus material output conveyor belt 4. The output end of the small-piece fungus material output conveyor belt 4 is embedded in the small-piece fungus material mixer 5, and the fungus material adhesive tank 7 is fixedly assembled on the upper surface of the small-piece fungus material mixer 5; The output end of the dehumidification output component 2 is connected to a fungus material continuous low-temperature carbonization component; As a preferred embodiment, the crushing and grading assembly 1 first dries the bacterial material input by the bacterial material input assembly to meet the humidity requirement, and then crushes the bacterial material. The crushed bacterial material is graded according to the set size. The bacterial material larger than the set size will enter the crushing and grading assembly 1 again through the large-piece bacterial material reflux conveyor 3 for crushing treatment. The bacterial material meeting the size requirement is input into the continuous low-temperature carbonization assembly of the bacterial material through the dehumidification output assembly 2 for carbonization work. And the dehumidification output assembly 2 will further dry the bacterial material during the output process to prevent the humidity of the bacterial material inside the large-piece bacterial material from not meeting the standard after being crushed in the drying treatment by the crushing and grading assembly 1, thereby affecting the carbonization efficiency and quality. The bacterial material smaller than the size requirement is conveyed to the small-piece bacterial material mixer 5 through the small-piece bacterial material output conveyor belt 4. Then, the small-piece bacterial material mixer 5 performs polymerization treatment with the binder added by the bacterial material binder tank 7. Then, the polymerized bacterial material is conveyed to the crushing and grading assembly 1 through the small-piece bacterial material mixing conveyor belt 6 for secondary treatment. In actual work, the size requirement for grading by the crushing and grading assembly 1, the drying degree of the dehumidification output assembly 2, and the type of binder in the bacterial material binder tank 7 should be comprehensively selected according to the actual type of bacterial material and carbonization requirements.

[0017] Furthermore, the crushing and grading assembly 1 includes: A fixed support frame 11, on which a crushing assembly 12 is fixedly embedded. On one side of the crushing assembly 12, there is a crushing driver 15, and the crushing driver 15 is fixedly assembled on the upper surface of the fixed support frame 11; A heating and dehumidification tank 13, fixedly assembled directly above the crushing assembly 12. The input end and the output end of an air dryer 17 are arranged inside it, and the air dryer 17 is fixedly assembled on the upper surface of the fixed support frame 11; A grading assembly 14, fixedly embedded on the fixed support frame 11, and the input end of the grading assembly 14 is arranged directly below the crushing driver 15; A control panel 16, fixedly assembled on the upper surface of the fixed support frame 11; As a preferred embodiment, the air dryer 17 directly contacts the wet bacterial material with a hot drying medium (such as hot air), transfers heat in a convection manner, and takes away the generated steam, so as to achieve the drying effect. The crushing particle size of the crushing assembly 12 can be adjusted according to the actual situation, and the grading requirement of the grading assembly 14 should be synchronized with the crushing particle size of the crushing assembly 12.

[0018] Furthermore, the heating and dehumidification tank 13 includes: The drying tank 131 is fixedly assembled directly above the crushing assembly 12. Inside the drying tank 131, a spiral conveyor belt 134 is fixedly assembled. The spiral conveyor belt 134 has a main input port 132 opened on the upper surface of the drying tank 131, and a falling port opened on the lower surface of the drying tank 131. And the input end and the output end of an air dryer 17 are arranged inside the drying tank 131; The secondary input port 133 is fixedly assembled on one side surface of the main input port 132; As a preferred embodiment, the drying tank 131 is a columnar hollow structure with input ports and output ports opened at the upper and lower ends, and its material is a heat-insulating material, which can retain heat to the greatest extent while ensuring the entry and exit of the bacterial material, thereby preventing heat dissipation, improving the drying efficiency, reducing the drying cost. And the setting of the spiral conveyor belt 134 can ensure the accurate conveying of the bacterial material while allowing the bacterial material to stay in the drying tank 131 for sufficient time, so as to ensure the drying performance of the bacterial material to the greatest extent, facilitate the subsequent crushing work, and effectively prevent the phenomenon of adhesion.

[0019] Further, the upper end of the main input port 132 is fixedly connected to the output end of the large-piece bacterial material return conveyor 3; The upper end of the secondary input port 133 is provided with the output end of the bacterial material input assembly and the small-piece bacterial material mixing conveyor belt 6.

[0020] Further, the grading assembly 14 includes: A fixed bracket 141, whose upper surface is inclined, and a rotation driver 142 is fixedly assembled along the inclined plane direction. Two rotation rings 143 are rotationally engaged in the middle of the rotation driver 142, and the two rotation rings 143 are perpendicular to the fixed bracket 141; The small-piece bacterial material bearing sleeve 144 is rotatably arranged between the two rotation rings 143, and the small-piece bacterial material bearing sleeve 144 is fixedly assembled on the fixed bracket 141; An evenly distributed bacterial material bearing sleeve net 145 and a large-piece bacterial material bearing sleeve net 146 are fixedly assembled between the two rotation rings 143; The central axes of the small-piece bacterial material bearing sleeve 144, the evenly distributed bacterial material bearing sleeve net 145 and the large-piece bacterial material bearing sleeve net 146 coincide and are all parallel to the middle line of the inclined plane of the fixed bracket 141; As a preferred embodiment, the rotation driver 142 drives the two rotation rings 143 to rotate, the two rotation rings 143 drive the evenly distributed bacterial material bearing sleeve net 145 and the large-piece bacterial material bearing sleeve net 146 to rotate synchronously, and the small-piece bacterial material bearing sleeve 144 always remains stationary.

[0021] Further, a small piece of fungus material output port 147 is provided below the end of the small piece of fungus material bearing sleeve 144 that is closer to the horizontal plane, and the input end of the small piece of fungus material output conveyor belt 4 is provided directly below the small piece of fungus material output port 147; As a preferred embodiment, the fungus material passing through the large piece of fungus material bearing sleeve net 146 and the uniform fungus material bearing sleeve net 145 will fall onto the inner wall of the small piece of fungus material bearing sleeve 144. And because the small piece of fungus material bearing sleeve 144 is inclined, the small piece of fungus material on the inner wall of the small piece of fungus material bearing sleeve 144 will slide towards the small piece of fungus material output port 147 and fall onto the small piece of fungus material output conveyor belt 4 through the small piece of fungus material output port 147 for subsequent work through the small piece of fungus material output conveyor belt 4.

[0022] Further, the surface of the uniform fungus material bearing sleeve net 145 and the large piece of fungus material bearing sleeve net 146 are provided with uniform material discharge holes, and the aperture of the material discharge holes of the large piece of fungus material bearing sleeve net 146 is larger than the aperture of the material discharge holes of the uniform fungus material bearing sleeve net 145; As a preferred embodiment, the uniform fungus material bearing sleeve net 145 and the large piece of fungus material bearing sleeve net 146 with different apertures can be adjusted according to the actual working conditions, and the aperture of the material discharge holes of the large piece of fungus material bearing sleeve net 146 is always larger than the aperture of the material discharge holes of the uniform fungus material bearing sleeve net 145. The size of the fungus material that meets the requirements should be smaller than the aperture of the material discharge holes of the large piece of fungus material bearing sleeve net 146 and larger than the aperture of the material discharge holes of the uniform fungus material bearing sleeve net 145.

[0023] Further, a uniform fungus material output port 1410 is rotatably provided on the side of the uniform fungus material bearing sleeve net 145 that is closer to the horizontal plane. The uniform fungus material output port 1410 is a double-layer sleeve, the inner layer of which is fixed on the side of the large piece of fungus material bearing sleeve net 146 that is closer to the horizontal plane. The uniform fungus material output port 1410 is fixedly assembled on the fixed bracket 141, and the input end of the dehumidification output component 2 is provided directly below the uniform fungus material output port 1410; As a preferred embodiment, the fungus material smaller than the aperture of the material discharge holes of the large piece of fungus material bearing sleeve net 146 passes through the material discharge holes of the large piece of fungus material bearing sleeve net 146 and falls onto the uniform fungus material bearing sleeve net 145. The fungus material smaller than the aperture of the material discharge holes of the uniform fungus material bearing sleeve net 145 then passes through the uniform fungus material bearing sleeve net 145 and falls onto the small piece of fungus material bearing sleeve 144. The fungus material that meets the requirements is then conveyed to the dehumidification output component 2 through the uniform fungus material output port 1410. The double-layer sleeve setting of the uniform fungus material output port 1410 can prevent the fungus material that does not meet the requirements from falling onto the dehumidification output component 2 and affecting the subsequent carbonization work, and at the same time prevent the fungus material that meets the requirements from falling into other components, resulting in repeated feeding and thus affecting the feeding efficiency.

[0024] Furthermore, a crushed mushroom material input port 148 is rotatably assembled on the side of the large-piece mushroom material bearing sleeve net 146 that is farther from the horizontal plane, and the crushed mushroom material input port 148 is fixedly assembled directly below the crushing assembly 12; A large-piece mushroom material output port 149 is rotatably assembled on the side of the large-piece mushroom material bearing sleeve net 146 that is closer to the horizontal plane. The large-piece mushroom material output port 149 is fixedly embedded in the uniform mushroom material output port 1410 and is connected to the input end of the large-piece mushroom material return conveyor 3; As a preferred embodiment, the setting of the crushed mushroom material input port 148 enables the crushed mushroom material to first fall into the large-piece mushroom material bearing sleeve net 146. The large-piece mushroom material bearing sleeve net 146 allows the mushroom material smaller than the aperture of the material discharge holes of the large-piece mushroom material bearing sleeve net 146 to fall, while the mushroom material larger than the aperture of the material discharge holes of the large-piece mushroom material bearing sleeve net 146 will fall into the large-piece mushroom material output port 149. The large-piece mushroom material output port 149 is embedded inside the uniform mushroom material output port 1410 and is connected to the large-piece mushroom material return conveyor 3 from the inside of the uniform mushroom material output port 1410. The large-piece mushroom material return conveyor 3 extends deep into the bottom of the large-piece mushroom material output port 149 to convey the mushroom material to the crushing and grading assembly 1.

[0025] Furthermore, the dehumidification output assembly 2 includes: A secondary dryer 21, with a closed shell 22 fixedly assembled at its input end. Inside the secondary dryer 21, an output belt 23 is horizontally arranged. A mushroom material falling port 24 is opened on the closed shell 22 above the input end of the output belt 23, and the mushroom material falling port 24 is arranged directly below the uniform mushroom material output port 1410; A parameter regulator 25 is fixedly assembled on the upper surface of the secondary dryer 21; A mushroom material continuous low-temperature carbonization assembly, connected to the output end of the output belt 23; As a preferred embodiment, since there may be large pieces of mushroom material in the mushroom material of the input device, after the large pieces of mushroom material enter the crushing and grading assembly 1, its air dryer 17 only dries the outside of the large pieces of mushroom material, and the mushroom material inside still does not meet the drying requirements. Moreover, after crushing, there is a high probability that the mushroom material separated from the large pieces of mushroom material does not meet the humidity requirements. Therefore, the setting of the secondary dryer 21 can further dry this type of mushroom material to prevent it from affecting the subsequent work. The setting of the closed shell 22 can prevent heat loss to a certain extent, thereby reducing the drying cost and saving resources.

[0026] In specific implementation, the following steps are included: Select the size requirements for classification by the crushing and classification component 1, the drying degree of the dehumidifying output component 2, and the type of binder in the fungal material binder tank 7 according to the actual type of fungal material and carbonization requirements. Then, the crushing and classification component 1 will first dry the fungal material input by the fungal material input component to meet the humidity requirements, and then crush the fungal material. The crushed fungal material will be classified according to the set size. The fungal material larger than the set size will enter the crushing and classification component 1 again through the large-piece fungal material return conveyor 3 for crushing treatment. The fungal material meeting the size requirements will be input into the continuous low-temperature carbonization component of the fungal material through the dehumidifying output component 2 for carbonization work. And the dehumidifying output component 2 will further dry the fungal material during the output process to prevent the humidity of the fungal material inside from not meeting the standard after the large-piece fungal material is crushed during the drying process by the crushing and classification component 1, thereby affecting the carbonization efficiency and quality. The fungal material smaller than the size requirements will be conveyed to the small-piece fungal material mixer 5 through the small-piece fungal material output conveyor belt 4. Then, the small-piece fungal material mixer 5 will carry out polymerization treatment with the binder added by the fungal material binder tank 7. Then, the polymerized fungal material will be conveyed to the crushing and classification component 1 through the small-piece fungal material mixing conveyor belt 6 for secondary treatment.

[0027] The above-mentioned is only the preferred specific implementation mode of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution of the present invention and its inventive concept, makes equivalent substitutions or changes, and should be covered within the protection scope of the present invention.

Claims

1. A feeding device for continuous low-temperature carbonization of fungus materials, characterized in that: include: A crushing and grading component (1) is provided with an input port and three output ports, wherein the input port is connected to a bacterial material input component, a small bacterial material mixing conveyor belt (6) and a large bacterial material return conveyor (3), and the three output ports of the crushing and grading component (1) are respectively connected to a dehumidification output component (2), a large bacterial material return conveyor (3) and a small bacterial material output conveyor belt (4), the output end of the small bacterial material output conveyor belt (4) is embedded in a small bacterial material mixer (5), and a bacterial material adhesive tank (7) is fixedly mounted on the upper surface of the small bacterial material mixer (5); The output end of the dehumidification output component (2) is connected to a bacterial material continuous low-temperature carbonization component; the crushing and grading component (1) comprises: A fixed support frame (11) on which a crushing assembly (12) is fixedly embedded, a crushing driver (15) being provided on one side of the crushing assembly (12), and the crushing driver (15) being fixedly mounted on an upper surface of the fixed support frame (11); A heating and dehumidifying tank (13) is fixedly mounted just above the crushing assembly (12), and an input end and an output end of an air dryer (17) are arranged on the inner side of the heating and dehumidifying tank (13), and the air dryer (17) is fixedly mounted on the upper surface of the fixed support frame (11); A grading component (14) is fixedly mounted on the fixed support frame (11), and an input end of the grading component (14) is arranged directly below the crushing driver (15); A control panel (16) is fixedly mounted on the upper surface of the fixed support frame (11).

2. A feeding device for continuous low-temperature carbonization of fungus material according to claim 1, characterized in that: The heating and dehumidification tank (13) comprises: A drying tank (131) is fixedly mounted just above the crushing assembly (12); a spiral conveyor belt (134) is fixedly mounted inside the drying tank (131); a main input port (132) is provided on the upper surface of the drying tank (131); a drop port is provided on the lower surface of the drying tank (131); and an input end and an output end of an air dryer (17) are provided inside the drying tank (131); The secondary input port (133) is fixedly mounted on a side surface of the primary input port (132).

3. A feeding device for continuous low-temperature carbonization of fungus material according to claim 2, characterized in that: The upper end of the main input port (132) is fixedly connected to the output end of the large truffle material return conveyor (3); The upper end of the secondary input port (133) is provided with a bacterial material input component and an output end of a small bacterial material mixing conveyor belt (6).

4. The feeding device for continuous low-temperature carbonization of fungus material according to claim 1, characterized in that: The grading component (14) comprises: A fixed bracket (141) has an upper surface which is arranged obliquely, and a rotating driver (142) is fixedly mounted along the oblique surface, wherein two rotating rings (143) are rotatably engaged in the middle of the rotating driver (142), and the two rotating rings (143) are arranged perpendicular to the fixed bracket (141); A small-block mushroom material carrying sleeve (144) is rotatably disposed between the two rotating rings (143), and the small-block mushroom material carrying sleeve (144) is fixedly assembled on the fixed bracket (141); A uniform fungus material carrying sleeve net (145) and a bulk fungus material carrying sleeve net (146) are fixedly mounted between the two rotating rings (143); The central axes of the small-block mushroom material carrying sleeve (144), the uniform mushroom material carrying sleeve net (145) and the large-block mushroom material carrying sleeve net (146) coincide with each other and are all parallel to the central line of the inclined plane of the fixed support (141).

5. A feeding device for continuous low-temperature carbonization of fungus material according to claim 4, characterized in that: A small mushroom material output port (147) is provided below the end of the small mushroom material carrying sleeve (144) closer to the horizontal plane, and an input end of a small mushroom material output conveyor belt (4) is provided directly below the small mushroom material output port (147).

6. A feeding device for continuous low-temperature carbonization of fungus material according to claim 4, characterized in that: The surfaces of the uniform fungus material carrying net (145) and the bulk fungus material carrying net (146) are provided with uniform feeding holes, and the hole diameter of the feeding holes of the bulk fungus material carrying net (146) is larger than the hole diameter of the feeding holes of the uniform fungus material carrying net (145).

7. A feeding device for continuous low-temperature carbonization of fungus material according to claim 6, characterized in that: The uniform bacterial material carrying net (145) is rotatably provided with a uniform bacterial material output port (1410) on the side closer to the horizontal plane. The uniform bacterial material output port (1410) is a double-layer sleeve, the inner layer of which is fixed to the side of the bulk bacterial material carrying net (146) closer to the horizontal plane. The uniform bacterial material output port (1410) is fixedly mounted on a fixed bracket (141), and the input end of the dehumidification output component (2) is provided directly below the uniform bacterial material output port (1410).

8. A feeding device for continuous low-temperature carbonization of fungus material according to claim 7, characterized in that: The large bacterial material carrying sleeve (146) is rotatably equipped with a crushed bacterial material input port (148) on the side farther from the horizontal plane, and the crushed bacterial material input port (148) is fixedly installed directly below the crushing assembly (12); The large mushroom material carrying sleeve (146) is rotatably equipped with a large mushroom material outlet (149) on the side closer to the horizontal plane. The large mushroom material outlet (149) is fixedly embedded in the uniform mushroom material outlet (1410) and is connected to the input end of the large mushroom material reflux conveyor (3).

9. A feeding device for continuous low-temperature carbonization of fungus material according to claim 8, characterized in that: The dehumidification output component (2) comprises: A secondary dryer (21), the input end of which is fixedly equipped with a closed shell (22), and an output belt (23) is horizontally arranged inside the secondary dryer (21), and a bacterial material drop opening (24) is opened on the closed shell (22) above the input end of the output belt (23), and the bacterial material drop opening (24) is arranged directly below the uniform bacterial material output opening (1410); A parameter controller (25) is fixedly mounted on the upper surface of the secondary dryer (21); A bacterial material continuous low-temperature carbonization component is connected to the output end of the output belt (23).

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