Production device of high-load biological composite material

Abstract

The invention relates to the technical field of composite material production, in particular to a high-load biological composite material production device which comprises a mixing device, a centrifugal knot eliminating mechanism, a rotary conveying mechanism, a pneumatic transmission mechanism and an auxiliary mechanism, and the centrifugal knot eliminating mechanism is connected to the mixing device and used for cutting raw materials. The centrifugal knot eliminating mechanism comprises a knot eliminating bin, a knot eliminating disc is arranged in the knot eliminating bin, a pair of knot eliminating knives is arranged on the knot eliminating disc, and a rotary conveying mechanism is connected into the knot eliminating bin and used for guiding and conveying raw materials. By arranging corresponding mechanisms on the high-load biological composite material production device, caking in high-load biological composite material raw materials is reduced, the influence of the caking on the quality of the high-load biological composite material is reduced, the damage to the internal structure of the mixing device is reduced, the efficiency of the mixing device is improved, and the production cost is reduced. The service life of the mixing device can be prolonged, and the loss of a user is reduced.

Description

TECHNICAL FIELD

[0001] The application belongs to the technical field of composite material production, and particularly relates to a production device for high-load biological composite material. BACKGROUND

[0002] Biological composite material is also called biomedical composite material, which is biomedical material composed of two or more than two different materials. In the production process of high-load biological composite material, the raw materials are first classified and mixed with water according to a certain proportion, and then stirred uniformly to complete the production of high-load biological composite material.

[0003] At present, in the production process of high-load biological composite material, a mixing device is needed to mix the raw materials. However, the raw materials of high-load biological composite material are prone to caking, and the existing mixing device does not have a corresponding pretreatment mechanism. The caking is difficult to eliminate, which not only affects the quality of high-load biological composite material, but also causes damage to the internal structure of the mixing device, affects the mixing efficiency of the mixing device, reduces the service life of the mixing device, and causes the loss of the user.

[0004] Therefore, in view of the above technical problems, it is necessary to provide a production device for high-load biological composite material. SUMMARY

[0005] The application aims to provide a production device for high-load biological composite material to solve the problem that the caking of raw materials not only affects the quality of high-load biological composite material, but also causes damage to the mixing device and affects the mixing efficiency of the mixing device.

[0006] In order to achieve the above-mentioned purpose, the technical scheme provided by an embodiment of the application is as follows:

[0007] A production device for high-load biological composite material comprises a mixing device, a centrifugal caking-eliminating mechanism, a rotary conveying mechanism, a pneumatic transmission mechanism and an auxiliary mechanism.

[0008] The centrifugal caking-eliminating mechanism is connected to the mixing device and used for cutting the raw materials.

[0009] The centrifugal caking-eliminating mechanism comprises a caking-eliminating bin, a caking-eliminating disc is arranged in the caking-eliminating bin, and a pair of caking-eliminating knives are arranged on the caking-eliminating disc.

[0010] The rotary conveying mechanism is connected to the caking-eliminating bin and used for guiding and conveying the raw materials.

[0011] The rotary conveying mechanism comprises a conveying disc, a conveying bearing is connected between the conveying disc and the caking-eliminating conveying pipe, a conveying mesh disc is connected to the conveying disc, and a conveying buffer ring is connected between the conveying mesh disc and the caking-eliminating bin.

[0012] The mixing device is provided with a pneumatic transmission mechanism for providing power and blowing raw materials;

[0013] The pneumatic transmission mechanism comprises a pneumatic gear disc, a pneumatic transmission rod is arranged in the pneumatic gear disc, a pneumatic driving gear is connected to the pneumatic transmission rod, and a pneumatic driven gear is connected to one end of the pneumatic transmission rod away from the pneumatic driving gear.

[0014] The auxiliary mechanism is arranged in the deagglomeration bin to improve the conveying effect of the rotary conveying mechanism.

[0015] Further, the deagglomeration bin is provided with a deagglomeration conveying pipe for guiding and conveying the raw materials, so that the raw materials can be conveyed into the mixing device and collected.

[0016] The deagglomeration conveying pipe is connected to the deagglomeration knife, so that the rotation of the deagglomeration conveying pipe can drive the deagglomeration knife to cut the raw materials and remove the agglomerates.

[0017] The deagglomeration conveying pipe penetrates through the mixing device, so that the raw materials can be introduced into the mixing device through the deagglomeration conveying pipe, and the deagglomeration guide block is arranged on the deagglomeration conveying pipe to guide the air, so that the air carrying the raw materials can enter the deagglomeration conveying pipe.

[0018] Further, the deagglomeration guide block is connected to the deagglomeration bin, which improves the stability of the deagglomeration guide block and reduces the probability of falling.

[0019] The deagglomeration bin is connected to a deagglomeration gear ring, when the raw materials are thrown out of the deagglomeration disc, they will collide with the deagglomeration gear ring, which not only disperses the agglomerates, but also blows the composite required materials, so that the composite required materials can enter the deagglomeration conveying pipe.

[0020] The deagglomeration bin is provided with a deagglomeration support ring to support the deagglomeration disc, improve the stability of the deagglomeration disc, reduce the probability of tilting, and improve the balance of the deagglomeration disc.

[0021] The deagglomeration support ring and the deagglomeration bin are connected by a plurality of deagglomeration support rods, which improve the stability of the deagglomeration support ring, reduce the probability of tilting, and better support the deagglomeration disc.

[0022] Further, a plurality of deagglomeration balls are connected to the deagglomeration support ring, which reduces the friction between the deagglomeration disc and the deagglomeration support ring, improves the smoothness of the deagglomeration disc rotation, and supports the deagglomeration disc.

[0023] The installation groove matched with the desintering ball is drilled on the desintering support ring, which reduces the probability of desintering ball disengagement and improves the stability of the desintering ball.

[0024] The lower side of the desintering disc is connected with a desintering driven ring, which can be driven to rotate by the pneumatic driven teeth, so that the desintering disc rotates, the raw materials on the desintering disc can be thrown out, and the raw materials can impact the desintering tooth ring. Due to the influence of inertia, the impact force of the caked raw materials is stronger, which can improve the probability of caking dispersion.

[0025] Further, the desintering bin is connected with a conveying feed pipe, which facilitates the user to pour the raw materials into the desintering bin. The conveying feed pipe is arranged through the desintering bin.

[0026] The desintering conveying pipe is connected with a conveying member, which can convey the raw materials, so that the raw materials on the conveying disc can fall on the desintering disc, and the desintering disc can better disperse the caked materials.

[0027] The desintering disc is drilled with a conveying groove matched with the conveying member, so that the raw materials can better fall on the desintering disc.

[0028] Further, the mixing device is drilled with a positioning groove matched with the pneumatic transmission rod, which improves the balance of the pneumatic transmission rod and reduces the probability of the pneumatic transmission rod tilting, so that the pneumatic driving teeth can be better driven by the pneumatic tooth disc.

[0029] The pneumatic driving teeth are engaged with the pneumatic tooth disc, so that the pneumatic driving teeth can be driven to rotate by the pneumatic tooth disc. The pneumatic driven teeth are matched with the desintering driven ring, so that the pneumatic driven teeth can drive the desintering driven ring to rotate.

[0030] Further, the pneumatic transmission rod is arranged through the pneumatic driving teeth and the conveying disc, so that the pneumatic transmission rod will not be affected by the conveying disc when the conveying disc vibrates.

[0031] The pneumatic transmission rod and the conveying disc are connected with a pneumatic air bag, which reduces the influence of the conveying disc vibration on the pneumatic transmission rod, so that the pneumatic transmission rod can better transmit power.

[0032] The pneumatic transmission gear is connected between the pneumatic tooth disc and the desintering conveying pipe, so that the rotation of the pneumatic tooth disc can drive the rotation of the desintering conveying pipe, the desintering conveying pipe can drive the conveying member, and the conveying member can convey the raw materials by rotating.

[0033] Further, the pneumatic transmission gear is engaged with the pneumatic tooth disc and the desintering conveying pipe, so that the pneumatic transmission gear can better play the role of transmission.

[0034] The pneumatic gear disc is connected with a plurality of pneumatic fan blades, can be driven to rotate by the pneumatic gear disc, can blow the airflow at the bottom of the nodulization tank, and can blow the raw materials at the bottom of the nodulization tank, so that the raw materials under the complex condition can be blown into the nodulization conveying pipe.

[0035] The nodulization tank is connected with an electric motor, which can drive the rotation of the pneumatic driving wheel and provide corresponding power for the rotation of the pneumatic driving wheel.

[0036] The electric motor is connected with a pneumatic driving wheel, which can drive the rotation of the pneumatic driven wheel through the pneumatic transmission belt, and plays a transmission role.

[0037] Further, the pneumatic gear disc is connected with a pneumatic driven wheel, which can be driven to rotate by the pneumatic transmission belt, and further make the pneumatic gear disc rotate.

[0038] The pneumatic driving wheel and the pneumatic driven wheel are connected with a pneumatic transmission belt, which plays a transmission role, so that the pneumatic driving wheel can drive the pneumatic driven wheel to rotate, and the pneumatic transmission belt penetrates the nodulization tank.

[0039] Further, the auxiliary mechanism includes an auxiliary supporting rod, which can support the auxiliary impact ball and has a certain elasticity, so that the auxiliary impact ball can return to the original position after being impacted.

[0040] The auxiliary supporting rod is connected with an auxiliary impact ball, which can collide with the auxiliary impact block, so that the conveying disc vibrates and the raw materials on the conveying disc are better conveyed by the conveying part.

[0041] The lower side of the conveying disc is connected with a pair of auxiliary impact blocks, which facilitates the collision of the auxiliary impact ball and the vibration of the conveying disc.

[0042] Compared with the prior art, the present application has the following advantages:

[0043] The present application reduces the nodulization of the high-load biological composite material raw materials by setting corresponding mechanisms on the high-load biological composite material production device, not only reduces the influence of nodulization on the quality of high-load biological composite materials, but also reduces the damage to the internal structure of the mixing device, improves the efficiency of the mixing device, and prolongs the service life of the mixing device, reduces the loss of the user. BRIEF DESCRIPTION OF DRAWINGS

[0044] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are only some embodiments recorded in the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0045] Figure 1 It is a front cross-sectional view of a production device for a high-load biocomposite material according to one embodiment of the present invention;

[0046] Figure 2 for Figure 1 Schematic diagram of the structure at A in the middle;

[0047] Figure 3 for Figure 1 Schematic diagram of the structure at B in the middle;

[0048] Figure 4 for Figure 1 Schematic diagram of the structure at C in the middle;

[0049] Figure 5 for Figure 1 Schematic diagram of the structure at D in the middle;

[0050] Figure 6 for Figure 1 Schematic diagram of the structure at E in the middle;

[0051] Figure 7 for Figure 1 Schematic diagram of the structure at F in the middle;

[0052] Figure 8 This is a three-dimensional diagram of a production device for a high-load biocomposite material according to an embodiment of the present invention.

[0053] In the figure: 1. Mixing device, 2. Centrifugal de-knot mechanism, 201. De-knot bin, 202. De-knot disk, 203. De-knot knife, 204. De-knot conveying pipe, 205. De-knot guide block, 206. De-knot gear ring, 207. De-knot support ring, 208. De-knot support rod, 209. De-knot ball, 210. De-knot driven ring, 3. Rotary conveying mechanism, 301. Conveyor disk, 302. Conveyor bearing, 303. Conveyor mesh disk, 304. Conveyor buffer ring, 305. Conveyor Feed pipe, 306. Conveying member, 4. Pneumatic transmission mechanism, 401. Pneumatic gear disc, 402. Pneumatic transmission rod, 403. Pneumatic driving gear, 404. Pneumatic driven gear, 405. Pneumatic airbag, 406. Pneumatic transmission gear, 407. Pneumatic fan, 408. Motor, 409. Pneumatic driving wheel, 410. Pneumatic driven wheel, 411. Pneumatic transmission belt, 5. Auxiliary mechanism, 501. Auxiliary support rod, 502. Auxiliary impact ball, 503. Auxiliary impact block. DETAILED DESCRIPTION

[0054] The present application will be described in detail below with reference to the embodiments shown in the drawings. However, the embodiments do not limit the present application, and the changes in structure, method or function made by those skilled in the art based on the embodiments are included in the protection scope of the present application.

[0055] The application discloses a production device of high-load biological composite material, referring to Figures 1-8 The device comprises a mixing device 1, a centrifugal deagglomeration mechanism 2, a rotary conveying mechanism 3, a pneumatic transmission mechanism 4 and an auxiliary mechanism 5.

[0056] Referring to Figures 1-6 The centrifugal deagglomeration mechanism 2 is connected to the mixing device 1 and used for cutting the raw materials, and the centrifugal deagglomeration mechanism 2 comprises a deagglomeration bin 201, which can guide air and provide a corresponding space for breaking up the raw material agglomerates.

[0057] The deagglomeration bin 201 is provided with a deagglomeration disc 202, which provides a corresponding bearing for the raw materials and provides a corresponding centrifugal force for the raw materials.

[0058] In addition, the deagglomeration disc 202 is provided with a pair of deagglomeration knives 203, which can rotate in the opposite direction of the deagglomeration disc 202 and cut the raw materials, thereby reducing the agglomeration of the raw materials.

[0059] Referring to Figures 1-6 The deagglomeration bin 201 is provided with a deagglomeration conveying pipe 204, which can guide and convey the raw materials, so that the raw materials can be conveyed into the mixing device 1 and collected.

[0060] The deagglomeration knife 203 is connected to the deagglomeration conveying pipe 204, so that the rotation of the deagglomeration conveying pipe 204 can drive the deagglomeration knife 203 to cut the raw materials and remove the agglomeration of the raw materials.

[0061] In addition, the deagglomeration conveying pipe 204 penetrates through the mixing device 1 and is arranged to guide the raw materials into the mixing device 1, and the deagglomeration conveying pipe 204 is provided with a deagglomeration guide block 205, which can guide air so that the air carrying the raw materials can enter the deagglomeration conveying pipe 204.

[0062] Referring to Figures 1-6 The deagglomeration guide block 205 is connected to the deagglomeration bin 201, which improves the stability of the deagglomeration guide block 205 and reduces the probability of falling of the deagglomeration guide block 205.

[0063] The deagglomeration tooth ring 206 is connected in the deagglomeration bin 201. When the raw materials are thrown out of the deagglomeration disc 202, the raw materials collide with the deagglomeration tooth ring 206, which can not only break the agglomerates but also make the composite required materials be blown by the air, so that the composite required materials can enter the deagglomeration conveying pipe 204.

[0064] In addition, the deagglomeration support ring 207 is arranged in the deagglomeration bin 201, which can support the deagglomeration disc 202, improve the stability of the deagglomeration disc 202, and reduce the probability of tilting of the deagglomeration disc 202, and improve the balance of the deagglomeration disc 202.

[0065] Optionally, the deagglomeration support ring 207 is connected with the deagglomeration bin 201 through a plurality of deagglomeration support rods 208, which improves the stability of the deagglomeration support ring 207, reduces the probability of tilting of the deagglomeration support ring 207, and makes the deagglomeration support ring 207 better support the deagglomeration disc 202.

[0066] Referring to Figures 1-6 The deagglomeration support ring 207 is connected with a plurality of deagglomeration balls 209, which reduces the friction between the deagglomeration disc 202 and the deagglomeration support ring 207, improves the smoothness of the rotation of the deagglomeration disc 202, and supports the deagglomeration disc 202.

[0067] The deagglomeration support ring 207 is connected with a plurality of deagglomeration balls 209, which reduces the friction between the deagglomeration disc 202 and the deagglomeration support ring 207, improves the smoothness of the rotation of the deagglomeration disc 202, and supports the deagglomeration disc 202.

[0068] Optionally, the deagglomeration disc 202 is connected with a deagglomeration driven ring 210 on the lower side, which can be driven to rotate by the pneumatic driven teeth 404, so that the deagglomeration disc 202 rotates, and the raw materials on the deagglomeration disc 202 can be thrown out, so that the raw materials can impact the deagglomeration tooth ring 206, and the agglomerated raw materials have stronger impact force due to inertia, which can improve the probability of breaking the agglomerates.

[0069] Referring to Figures 1-5 The deagglomeration bin 201 is connected with a rotary conveying mechanism 3, which is used for guiding and conveying the raw materials. The rotary conveying mechanism 3 includes a conveying disc 301, which can bear the raw materials with heavy weight, so that the agglomerated raw materials can be conveyed by the conveying member 306.

[0070] In addition, the conveying disc 301 is connected with a conveying bearing 302 between the conveying disc 301 and the deagglomeration conveying pipe 204, which reduces the probability of rotation of the conveying disc 301 and avoids the possibility that the conveying disc 301 is driven by the deagglomeration conveying pipe 204.

[0071] In addition, the conveying disc 301 is connected with a conveying mesh disc 303, which can bear the raw materials and does not affect the circulation of the air.

[0072] In other words, the conveying net disc 303 is connected with the conveying buffer ring 304 between the deagglomeration bin 201, which can buffer the conveying net disc 303 and reduce the probability of damage of the conveying net disc 303.

[0073] Referring to Figures 1-4 As shown, the deagglomeration bin 201 is connected with the conveying feeding pipe 305, which facilitates the user to pour the raw materials into the deagglomeration bin 201, and the conveying feeding pipe 305 penetrates through the deagglomeration bin 201.

[0074] In addition, the deagglomeration conveying pipe 204 is connected with the conveying piece 306, which can convey the raw materials and make the raw materials on the conveying disc 301 fall on the deagglomeration disc 202, so that the deagglomeration disc 202 can better disperse the agglomerates.

[0075] Optionally, the deagglomeration disc 202 is provided with a conveying groove matched with the conveying piece 306, so that the raw materials can better fall on the deagglomeration disc 202.

[0076] Referring to Figures 1-8 As shown, the mixing device 1 is provided with a pneumatic transmission mechanism 4 for providing power and blowing the raw materials, and the pneumatic transmission mechanism 4 includes a pneumatic gear 401, which can drive the pneumatic driving gear 403 and the pneumatic transmission gear 406 through rotation, so that the pneumatic transmission rod 402 and the deagglomeration conveying pipe 204 are driven to rotate.

[0077] Optionally, the pneumatic gear 401 is provided with the pneumatic transmission rod 402, which serves as a transmission to synchronize the rotation of the pneumatic driving gear 403 and the pneumatic driven gear 404.

[0078] In addition, the pneumatic transmission rod 402 is connected with the pneumatic driving gear 403, which can be driven to rotate by the pneumatic gear 401, so that the pneumatic driving gear 403 can drive the pneumatic driven gear 404 to rotate through the pneumatic transmission rod 402.

[0079] In addition, the pneumatic transmission rod 402 is connected with the pneumatic driving gear 403, which can be driven to rotate by the pneumatic gear 401, so that the pneumatic driving gear 403 can drive the pneumatic driven gear 404 to rotate through the pneumatic transmission rod 402.

[0080] Referring to Figures 1-7 As shown, the mixing device 1 is provided with a positioning groove matched with the pneumatic transmission rod 402, which improves the balance of the pneumatic transmission rod 402 and reduces the probability of inclination of the pneumatic transmission rod 402, so that the pneumatic driving gear 403 can be better driven by the pneumatic gear 401.

[0081] The pneumatic driving gear 403 is engaged with the pneumatic gear disc 401, so that the pneumatic driving gear 403 can be driven to rotate by the pneumatic gear disc 401, the pneumatic driven gear 404 is matched with the dedusting driven ring 210, so that the pneumatic driven gear 404 can drive the dedusting driven ring 210 to rotate.

[0082] Referring to Figures 1-7 The pneumatic transmission rod 402 is arranged through the pneumatic driving gear 403 and the conveying disc 301, and the pneumatic transmission rod 402 is not affected by the conveying disc 301 when the conveying disc 301 vibrates.

[0083] In addition, the pneumatic transmission rod 402 is connected with the pneumatic air bag 405 between the pneumatic transmission rod 402 and the conveying disc 301, which reduces the influence of the vibration of the conveying disc 301 on the pneumatic transmission rod 402, and makes the pneumatic transmission rod 402 better transmit power.

[0084] Optionally, the pneumatic gear disc 401 is connected with the pneumatic transmission gear 406 between the pneumatic gear disc 401 and the dedusting conveying pipe 204, so that the rotation of the pneumatic gear disc 401 can drive the rotation of the dedusting conveying pipe 204, and the dedusting conveying pipe 204 can drive the conveying member 306 to convey the raw materials by rotating.

[0085] Referring to Figures 1-7 The pneumatic transmission gear 406 is engaged with the pneumatic gear disc 401 and the dedusting conveying pipe 204, so that the pneumatic transmission gear 406 better plays a transmission role.

[0086] The pneumatic gear disc 401 is connected with a plurality of pneumatic fan blades 407, which can be driven to rotate by the pneumatic gear disc 401, and can blow the air flow at the bottom of the dedusting bin 201, so that the air flow at the bottom of the dedusting bin 201 can blow the raw materials, and the raw materials meeting the complex conditions can be blown into the dedusting conveying pipe 204.

[0087] In addition, the dedusting bin 201 is connected with the motor 408, which can drive the rotation of the pneumatic driving gear 409 and provide corresponding power for the rotation of the pneumatic driving gear 409.

[0088] In other words, the motor 408 is connected with the pneumatic driving gear 409, which can drive the rotation of the pneumatic driven gear 410 through the pneumatic transmission belt 411, and plays a transmission role.

[0089] Referring to Figures 1-8 The pneumatic gear disc 401 is connected with the pneumatic driven gear 410, which can be driven to rotate by the pneumatic transmission belt 411, and further make the pneumatic gear disc 401 rotate.

[0090] In addition, the pneumatic driving wheel 409 is connected with the pneumatic transmission belt 411 between the pneumatic driven wheel 410, which plays a transmission role, so that the pneumatic driving wheel 409 can drive the pneumatic driven wheel 410 to rotate, and the pneumatic transmission belt 411 is arranged through the nodal elimination bin 201.

[0091] Reference Figures 1-2 As shown, the auxiliary mechanism 5 is arranged in the nodal elimination bin 201, which is used to improve the conveying effect of the rotary conveying mechanism 3, and the auxiliary mechanism 5 comprises an auxiliary supporting rod 501, which can support the auxiliary impact ball 502 and has a certain elastic force, so that the auxiliary impact ball 502 can return to the original position after being impacted.

[0092] The auxiliary supporting rod 501 is connected with the auxiliary impact ball 502, which can collide with the auxiliary impact block 503, so that the conveying disc 301 is vibrated, and the raw materials on the conveying disc 301 are better conveyed by the conveying part 306, and the auxiliary supporting rod 501 is connected with the pneumatic gear disc 401.

[0093] In addition, the lower side of the conveying disc 301 is connected with a pair of auxiliary impact blocks 503, which facilitates the collision of the auxiliary impact ball 502 and facilitates the vibration of the conveying disc 301.

[0094] It is apparent for those skilled in the art that the present application is not limited to the details of the above-described exemplary embodiments, but can be implemented in other concrete forms without departing from the spirit or essential characteristics of the present application. Therefore, the embodiments should be considered in all aspects as illustrative and not restrictive, and the scope of the present application is defined by the appended claims rather than the above description, and it is intended to encompass all changes falling within the meaning and range of equivalents of the claims. Any reference signs in the claims should not be considered as limiting the claims involved.

[0095] In addition, it should be understood that although the present specification is described in terms of embodiments, each embodiment does not contain only one independent technical solution, and the description manner of the specification is only for the sake of clarity, and those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be properly combined to form other embodiments which can be understood by those skilled in the art.

Claims

1. A production device for high-load biocomposite materials, characterized in that: include: Mixing device (1); A centrifugal de-agglomeration mechanism (2) is connected to the mixing device (1) and is used for cutting the raw materials; The centrifugal de-knot mechanism (2) comprises a de-knot chamber (201), a de-knot disc (202) is provided in the de-knot chamber (201), and a pair of de-knot knives (203) are provided on the de-knot disc (202); A rotary conveying mechanism (3) is connected to the de-agglomeration bin (201) and is used for guiding and conveying the raw materials; The rotary conveying mechanism (3) comprises a conveying disc (301), a conveying bearing (302) is connected between the conveying disc (301) and the knot-eliminating conveying pipe (204), a conveying mesh disc (303) is connected to the conveying disc (301), and a conveying buffer ring (304) is connected between the conveying mesh disc (303) and the knot-eliminating bin (201); A pneumatic transmission mechanism (4) is provided on the mixing device (1) and is used to provide power and blow the raw materials; The pneumatic transmission mechanism (4) comprises a pneumatic gear disc (401), a pneumatic transmission rod (402) is provided in the pneumatic gear disc (401), a pneumatic driving tooth (403) is connected to the pneumatic transmission rod (402), and a pneumatic driven tooth (404) is connected to one end of the pneumatic transmission rod (402) away from the pneumatic driving tooth (403); The auxiliary mechanism (5) is arranged in the de-knotting bin (201) and is used to improve the conveying effect of the rotary conveying mechanism (3).

2. The production device of a high-load biocomposite material according to claim 1, characterized in that: A knot removal conveying pipe (204) is provided in the knot removal bin (201), the knot removal knife (203) is connected to the knot removal conveying pipe (204), the knot removal conveying pipe (204) is arranged to pass through the mixing device (1), and a knot removal guide block (205) is provided on the knot removal conveying pipe (204).

3. The production device of a high-load biocomposite material according to claim 2, characterized in that: The knot elimination guide block (205) is connected to the knot elimination bin (201), a knot elimination gear ring (206) is connected inside the knot elimination bin (201), a knot elimination support ring (207) is provided inside the knot elimination bin (201), and a plurality of knot elimination support rods (208) are connected between the knot elimination support ring (207) and the knot elimination bin (201).

4. The production device of a high-load biocomposite material according to claim 3, characterized in that: The de-knot support ring (207) is connected to a plurality of de-knot balls (209), and a mounting groove matching the de-knot balls (209) is bored on the de-knot support ring (207). The lower side of the de-knot disk (202) is connected to a de-knot driven ring (210).

5. The production device of a high-load biocomposite material according to claim 2, characterized in that: The knot elimination bin (201) is connected to a conveying feed pipe (305), which is arranged to pass through the knot elimination bin (201); the knot elimination conveying pipe (204) is connected to a conveying member (306); and the knot elimination disk (202) is provided with a conveying groove that matches the conveying member (306).

6. The production device of a high-load biocomposite material according to claim 4, characterized in that: A positioning groove for matching the pneumatic transmission rod (402) is bored on the mixing device (1), the pneumatic driving teeth (403) are meshed with the pneumatic toothed disc (401), and the pneumatic driven teeth (404) are matched with the knot-eliminating driven ring (210).

7. The production device of a high-load biocomposite material according to claim 6, characterized in that: The pneumatic transmission rod (402) is arranged to penetrate the pneumatic driving gear (403) and the conveying disc (301); a pneumatic airbag (405) is connected between the pneumatic transmission rod (402) and the conveying disc (301); and a pneumatic transmission gear (406) is connected between the pneumatic gear disc (401) and the knot-eliminating conveying pipe (204).

8. The production device of a high-load biocomposite material according to claim 7, characterized in that: The pneumatic transmission gear (406) is meshed with a pneumatic toothed disc (401) and a knot removal conveying pipe (204); a plurality of pneumatic fan blades (407) are connected to the pneumatic toothed disc (401); an electric motor (408) is connected to the knot removal bin (201); and a pneumatic driving wheel (409) is connected to the electric motor (408).

9. The production device of a high-load biocomposite material according to claim 8, characterized in that: The pneumatic toothed disc (401) is connected to a pneumatic driven wheel (410), a pneumatic transmission belt (411) is connected between the pneumatic driving wheel (409) and the pneumatic driven wheel (410), and the pneumatic transmission belt (411) is arranged to pass through the knot elimination bin (201).

10. The production device of a high-load biocomposite material according to claim 1, characterized in that: The auxiliary mechanism (5) comprises an auxiliary support rod (501), an auxiliary impact ball (502) is connected to the auxiliary support rod (501), the auxiliary support rod (501) is connected to the pneumatic gear disc (401), and a pair of auxiliary impact blocks (503) are connected to the lower side of the conveying disc (301).

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