Rapid manufacturing equipment for bionic anti-corrosion sound insulation board

Abstract

The invention discloses rapid manufacturing equipment of a bionic anti-corrosion sound insulation board, and relates to the technical field of energy-saving building material manufacturing, the rapid manufacturing equipment comprises a feeding hopper, a feeding port is formed in the upper portion of the feeding hopper, two discharging channels are formed in the feeding hopper, a conveying belt is fixedly connected to the upper portion of the feeding hopper, and a quantifying assembly is arranged in the feeding hopper; the quantitative assembly comprises a material containing plate slidably connected to the position, located in the discharging channel, in the feeding hopper, and through quantitative mixing, the situations that the internal structure of the sound insulation plate is loose, cracks occur, and the density is uneven possibly caused by the excessive using amount of the sound insulation plate filler can be prevented, and the situation that internal gaps of the sound insulation plate are increased when the using amount is insufficient can be avoided. In addition, deep bubbles are discharged through vibration, so that the internal structure of the material is more uniform, the structural stability of the sound insulation board is enhanced, and after the bubbles are discharged, the structure of the material is more uniform, and various external forces can be better borne.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of energy-saving building material manufacturing, in particular to a rapid manufacturing equipment for a bionic corrosion-resistant sound insulation board. BACKGROUND

[0002] In modern buildings, sound insulation and noise reduction have become one of the important indicators to measure the quality of buildings. As a kind of efficient, environmentally friendly and energy-saving sound insulation material, energy-saving sound insulation board has been widely welcomed by the market due to its excellent sound insulation performance and convenient installation method. The energy-saving building material production special equipment used in the production process of the energy-saving sound insulation board is the key to producing such high-quality sound insulation materials.

[0003] In the production process of energy-saving sound insulation board, the materials commonly used include damping materials, vermiculite, polyester fiber, high-crystal materials and wood chip materials, etc. These materials not only have good sound insulation effect, but also have energy-saving and environmental protection characteristics. In order to ensure the durability of wood chips and the overall quality of the sound insulation board, chemical agents and wood chip water need to be added during the wood chip treatment process. The chemical agents are used to prevent the wood chips from rotting, and the wood chip water plays a strengthening role. However, since the amount of these additives is usually controlled manually, it is difficult to accurately grasp the proportion among the three, which may lead to improper material proportioning and also cannot effectively achieve the energy-saving effect during the addition of ingredients, thereby affecting the quality of the sound insulation board. In addition, in the forming of the sound insulation board, in order to reduce the porosity and improve the density of the vermiculite powder and other auxiliary materials (such as adhesives, curing agents, etc.), a surface observation method is usually used to determine the approximate position of the bubbles in the vermiculite powder and other auxiliary materials (such as adhesives, curing agents, etc.). Then, the vibrating rod is repeatedly inserted into the vermiculite powder and other auxiliary materials in the mold to discharge the gas. However, the surface observation method has great limitations. It can only detect the bubbles on the surface or near the surface of the vermiculite powder and other auxiliary materials, but cannot find the bubbles hidden inside. This leads to the incomplete discharge of the gas in the sound insulation board, thereby affecting the quality of the product.

[0004] To solve the above problems, a rapid manufacturing equipment for a bionic corrosion-resistant sound insulation board is provided. SUMMARY

[0005] To solve the above technical problems, a rapid manufacturing equipment for a bionic corrosion-resistant sound insulation board is provided, which solves the problems raised in the background technology.

[0006] To achieve the above purposes, the following technical solutions can be used in the present application: The present application provides a rapid manufacturing equipment for a bionic corrosion-resistant sound insulation board, which comprises a feeding hopper, a feeding port is formed in the upper part of the feeding hopper, two discharge channels are formed in the interior of the feeding hopper, a conveying belt is fixedly connected to the upper part of the feeding hopper, and a quantitative assembly is arranged in the feeding hopper. The quantitative assembly comprises two material containing plates slidably connected at the position of the discharge channels in the feeding hopper, the bottom ends of the two material containing plates are fixedly connected with L-shaped sliding rods, the outer surfaces of the two L-shaped sliding rods are provided with movable grooves at the positions close to each other, the interiors of the two movable grooves are movably connected with movable rods, the two ends of the two movable rods are fixedly connected with an output rod, the end close to each other of the two output rods is fixedly connected with a rotating ring, the interior of the rotating ring is fixedly connected with a rotating rod, the end of the rotating rod is provided with a servo motor, and the interior of the feeding hopper is provided with an ultrasonic level sensor.

[0007] Further, the two discharge channels are not connected, the two discharge channels are provided in an inclined manner, the two L-shaped sliding rods are slidably connected with the feeding hopper, the rotating rod is rotatably connected with the feeding hopper, and the shell of the servo motor is mounted on the feeding hopper.

[0008] Further, the rotating rod is provided with a stirring assembly, the outer surface of the rotating rod is provided with a transmission belt one, the other end of the transmission belt one is provided with a rotating rod, the outer surface of the rotating rod is fixedly connected with a stirring rod, the stirring rod is provided with two output grooves, the upper output groove is movably connected with a receiving rod, the end of the receiving rod is fixedly connected with a swing rod, the end away from the receiving rod of the swing rod is fixedly connected with a shaft rod, and the end away from the swing rod of the shaft rod is fixedly connected with a guide plate.

[0009] Further, the rotating rod is rotatably connected with the feeding hopper, the shaft rod is rotatably connected with the feeding hopper, and the guide plate is arranged at the position between the transmission belt and the feeding port.

[0010] Further, the side of the feeding hopper is provided with a feeding assembly, the feeding hopper is fixedly connected with a stirring barrel at the position of the discharge channel, the top end of the stirring barrel is fixedly connected with two feeding barrels, the bottom ends of the two feeding barrels are fixedly connected with feeding pipes, the interiors of the two feeding barrels are rotatably connected with driving rods, the bottom ends of the two driving rods are fixedly connected with control discs, the two control discs are provided with arc grooves, the two control discs are provided with two notches in the arc grooves, the two driving rods are jointly provided with a transmission belt two through a belt wheel, and the outer surface of the driving rod close to the feeding hopper is fixedly connected with a resisting rod.

[0011] Further, the feeding pipe is slidably connected with the arc groove, the feeding pipe is matched with the notch, and the resisting rod is movably connected with the lower output groove of the stirring rod.

[0012] Further, the bottom of the stirring barrel is provided with a mixing assembly, the mixing assembly comprises a support plate fixedly connected with the bottom end of the feeding hopper, the top of the support plate is fixedly connected with a spiral auger, the spiral auger is fixedly connected with a feeding hopper below the stirring barrel, the end away from the feeding hopper of the spiral auger is provided with a mixing barrel below, and the mixing barrel is fixedly connected with the support plate.

[0013] Further, the bottom of the support plate is provided with a vibration assembly, the vibration assembly comprises a bottom plate fixedly connected to the bottom end of the support plate, a sliding groove is formed in the side edge of the bottom plate, a threaded rod is rotatably connected in the sliding groove, a connecting rod is threadedly connected to the outer surface of the threaded rod, a paving bucket is fixedly connected to the end of the connecting rod away from the threaded rod, a mold is fixedly connected below the paving bucket at the top of the support plate, and a vibrator is installed on the side edge of the mold.

[0014] From the above, the bionic corrosion-resistant sound insulation board rapid manufacturing equipment has the following characteristics and advantages: The application can prevent the energy-saving sound insulation board filler from being used in excess, which may cause the internal structure of the energy-saving sound insulation board to be loose, cracks, and uneven density, etc., and can also avoid the internal gap of the sound insulation board from being increased and the density from being reduced when the amount is insufficient, thereby reducing the reflection and absorption capacity of sound, in addition, the uninterrupted quantitative mixing can also reduce energy consumption and equipment wear during production, at the same time, the continuous production process can also reduce the waste of raw materials and improve the material utilization rate, thereby achieving the purpose of saving, and being beneficial to further optimizing the function of the energy-saving building material production special equipment.

[0015] The vibration can make the internal structure of the material more uniform and enhance the structural stability of the sound insulation board, in addition, after the bubbles are discharged, the structure of the material is more uniform, which can better withstand various external forces, thereby reducing the damage rate of the energy-saving sound insulation board and achieving the purpose of energy-saving of the sound insulation board. BRIEF DESCRIPTION OF DRAWINGS

[0016] Figure 1 It is a schematic diagram of the overall structure of the bionic corrosion-resistant sound insulation board rapid manufacturing equipment shown in the application; Figure 2 It is a schematic diagram of the quantitative assembly and the material stirring assembly of the bionic corrosion-resistant sound insulation board rapid manufacturing equipment shown in the application; Figure 3 It is a schematic diagram of the side edge section of the feeding hopper of the bionic corrosion-resistant sound insulation board rapid manufacturing equipment shown in the application; Figure 4 It is a schematic diagram of the internal structure of the feeding hopper of the bionic corrosion-resistant sound insulation board rapid manufacturing equipment shown in the application; Figure 5 It is a schematic diagram of the internal structure of the stirring barrel and the feeding barrel of the bionic corrosion-resistant sound insulation board rapid manufacturing equipment shown in the application; Figure 6 It is a schematic diagram of the control panel of the bionic corrosion-resistant sound insulation board rapid manufacturing equipment shown in the application; Figure 7 It is a schematic diagram of the paving bucket and the driving structure of the bionic corrosion-resistant sound insulation board rapid manufacturing equipment shown in the application.

[0017] Wherein, the figure mark in the application is: 1, feed hopper; 2, feed inlet; 3, discharge channel; 4, conveying belt; Quantitative component: 51, material plate; 52, L-shaped sliding rod; 53, movable slot; 54, movable rod; 55, output rod; 56, rotating ring; 57, rotating rod; 58, servo motor; 59, ultrasonic level sensor; Stirring component: 61, transmission belt one; 62, rotating rod; 63, stirring rod; 64, output slot; 65, receiving rod; 66, swing rod; 67, shaft rod; 68, guide plate; Stirring component: 61, transmission belt one; 62, rotating rod; 63, stirring rod; 64, output slot; 65, receiving rod; 66, swing rod; 67, shaft rod; 68, guide plate; Mixing component: 81, support plate; 82, spiral auger; 83, feed hopper; 84, mixing barrel; Vibration component: 91, base plate; 92, chute; 93, threaded rod; 94, connecting rod; 95, material spreading barrel; 96, mold; 97, vibrator. DETAILED DESCRIPTION

[0018] The technical solutions in the embodiments of the application will be clearly and completely described below with reference to the drawings in the embodiments of the application. Obviously, the described embodiments are only part of the embodiments of the application, not all the embodiments of the application. Based on the embodiments in the application, all other embodiments obtained by those skilled in the art without creative labor fall within the protection scope of the application.

[0019] Referring to 1-2 Figure 7 As shown in the embodiments of the application, a kind of quick manufacturing equipment of bionic corrosion-resistant sound insulation board will be described in detail as follows: including feed hopper 1, feed inlet 2 is formed in the upper portion of feed hopper 1, two discharge channels 3 are symmetrically formed in the interior of feed hopper 1, and feed inlet 2 is located above two discharge channels 3 and communicates with two discharge channels 3, in addition, the bottom of feed hopper 1 is inclinedly arranged, so that material can be automatically dropped, conveying belt 4 is fixedly connected above feed hopper 1, quantitative component is arranged in feed hopper 1; The quantitative assembly comprises two material containing plates 51 slidably connected at the position of the discharge channels 3 in the feeding hopper 1, the bottom ends of the two material containing plates 51 are fixedly connected with L-shaped sliding rods 52, the L-shaped sliding rods 52 extend to the lower side of the feeding hopper 1 through the bottom of the feeding hopper 1, the two L-shaped sliding rods 52 are oppositely arranged, the outer surfaces of the two L-shaped sliding rods 52 are both provided with movable grooves 53 at the close positions, the two L-shaped sliding rods 52 are movably connected with an output rod 55, the two ends of the output rod 55 are also provided with movable grooves 53, the movable grooves of the output rod 55 are provided with movable rods 54, the two movable rods 54 are slidably arranged in the movable grooves 53 of the L-shaped sliding rods 52, the middle part of the output rod 55 is provided with a rotating ring 56, the inside of the rotating ring 56 is fixedly connected with a rotating rod 57, and the end of the rotating rod 57 is provided with a servo motor 58.

[0020] Further, the two discharge channels 3 are not connected, the bottoms of the two discharge channels 3 are both arranged in an inclined manner, the two L-shaped sliding rods 52 are both slidably connected with the feeding hopper 1, the rotating rod 57 is rotatably connected with the feeding hopper 1, the shell of the servo motor 58 is mounted on the feeding hopper 1, the inside of the feeding hopper 1 is mounted with an ultrasonic level sensor 59, the ultrasonic level sensor 59 is signal connected with the servo motor 58, when the sawdust in the feeding hopper 1 reaches a certain degree, the ultrasonic level sensor 59 can control the servo motor 58 to start and stop, the ultrasonic level sensor 59 comprises an ultrasonic transmitter, the transmitter periodically emits ultrasonic pulses, the pulses are usually high-frequency sound waves, the frequency range is usually between 20 kHz and 200 kHz, the emitted ultrasonic pulses propagate in the air until they meet the material surface, part of the sound wave energy is reflected back. The reflected ultrasonic pulse returns to the sensor along the original path, which is not described in detail here.

[0021] Further, the rotating rod 57 is sleeved with a material stirring assembly, the outer surface of the end of the rotating rod 57 away from the servo motor 58 is sleeved with a transmission belt one 61, the other end of the transmission belt one 61 is mounted with a rotating rod 62, the outer surfaces of the rotating rod 57 and the rotating rod 62 are both mounted with belt pulleys, the outer surface of the rotating rod 62 is fixedly connected with a stirring rod 63, two output grooves 64 are formed in the stirring rod 63, a receiving rod 65 is movably connected in the output groove 64 at the end of the stirring rod 63, the end of the receiving rod 65 is fixedly connected with a swing rod 66, the end of the swing rod 66 away from the receiving rod 65 is fixedly connected with a shaft rod 67, and the end of the shaft rod 67 away from the swing rod 66 is fixedly connected with a guide plate 68.

[0022] Further, the rotating rod 62 is rotatably connected with the feeding hopper 1, the shaft rod 67 is rotatably connected with the feeding hopper 1, and the guide plate 68 is arranged at the position between the conveying belt 4 and the feeding port 2.

[0023] Further, the side of the feeding hopper 1 is provided with a feeding assembly, the feeding hopper 1 is fixedly connected with a stirring barrel 71 at the position of the discharging channel 3, the top end of the stirring barrel 71 is fixedly connected with two feeding barrels 72, the bottom end of the two feeding barrels 72 is fixedly connected with feeding pipes 73, the inside of the two feeding barrels 72 is rotatably connected with driving rods 74, the bottom end of the two driving rods 74 is fixedly connected with control discs 75, the control discs 75 are located below the bottom of the feeding barrels 72, the two control discs 75 are both provided with arc-shaped grooves 76, the two control discs 75 are both provided with two notches 77 in the arc-shaped grooves 76, the two driving rods 74 are commonly sleeved with a transmission belt two 78 through a belt pulley, the outer surface of the driving rod 74 close to the feeding hopper 1 is fixedly connected with a stop rod 79, and the two discharging channels 3 of the feeding hopper 1 are both communicated with the inside of the stirring barrel 71.

[0024] Further, the feeding pipe 73 is slidably connected between the arc-shaped groove 76, the feeding pipe 73 is matched with the notch 77, the stop rod 79 is movably connected between the output groove 64 close to the rotating rod 62 of the push rod 63, and the two feeding barrels 72 are respectively filled with wood chips and chemical agents, so that the flexibility and plasticity of the wood chips are improved, which helps the wood chips to be better combined with other materials in the subsequent forming process, improves the overall performance of the plate and plays a reinforcing role.

[0025] Further, the bottom of the stirring barrel 71 is provided with a mixing assembly, the mixing assembly comprises a support plate 81 fixedly connected with the bottom end of the feeding hopper 1, the top of the support plate 81 is fixedly connected with a spiral auger 82, the spiral auger 82 is fixedly connected with a feeding hopper 83 located directly below the stirring barrel 71, a mixing barrel 84 is arranged below the end of the spiral auger 82 away from the feeding hopper 83, and the mixing barrel 84 is fixedly connected between the support plate 81.

[0026] Further, the bottom of the support plate 81 is provided with a vibration assembly, the vibration assembly comprises a bottom plate 91 fixedly connected with the bottom end of the support plate 81, a sliding groove 92 is formed in the side of the bottom plate 91, a threaded rod 93 is rotatably connected in the sliding groove 92, the outer surface of the threaded rod 93 is threadedly connected with a connecting rod 94, the end of the connecting rod 94 away from the threaded rod 93 extends to the upper side of the bottom plate 91 and is fixedly connected with a paving barrel 95, a mold 96 is fixedly connected below the paving barrel 95 on the top of the support plate 81, and a vibrator 97 is mounted on the side of the mold 96.

[0027] It should be noted that the width of the guide plate 68 is only slightly smaller than the width of the feed port 2, the width of the conveying belt 4 is smaller than the width of the guide plate 68, and the swing amplitude of the guide plate 68 is small, so that when the guide plate 68 swings to the maximum stroke on one side, the wood chips falling from the conveying belt 4 can be completely caught by the guide plate 68, and the wood chips can be completely guided to the side where the guide plate 68 is inclined, and there will be no situation that the inclination of the guide plate 68 is too large or the falling width of the wood chips is too wide to directly fall into the other side of the discharge channel 3. In combination with the above embodiment, the following is the entire working process and working principle of the above embodiment: The initial state of the device is that the servo motor 58 selects an arbitrary direction to rotate and reaches the maximum stroke set. At this time, the L-shaped sliding rod 52 corresponding to the rotation direction moves to the lowermost position of the entire stroke under the drive of the rotating rod 57 and the output rod 55, and the corresponding material holding plate 51 is located at the bottom of the discharge channel 3, and the other material holding plate 51 is located at the top of the discharge channel 3. The guide plate 68 is deflected under the linkage of the transmission belt one 61, the rotating rod 62, the push rod 63, the receiving rod 65, the swing rod 66 and the shaft rod 67, and the deflection direction is towards the side of the discharge channel 3 where the material holding plate 51 is located at the top of the discharge channel 3.

[0028] The working state is that the crushed wood chips enter the inside of the feed hopper 1 from the feed port 2 through the conveying belt 4, and at the same time are affected by the guide plate 68, so that the wood chips on the conveying belt 4 enter the inside of the feed hopper 1 to the inside of the side of the material holding plate 51. When the volume of the wood chips accumulated on the material holding plate 51 reaches a certain degree, the ultrasonic level sensor 59 in the feed hopper 1 will control the servo motor 58 to drive the rotating rod 57 to rotate, and in the process of rotating the rotating rod 57, the output rod 55 fixed on the outer surface of the rotating ring 56 is rotated, and then the movable rod 54 is in contact with the inner wall of the movable slot 53 opened on the L-shaped sliding rod 52, so that the L-shaped sliding rod 52 on the side of the material holding plate 51 holding wood chips moves downward along the feed hopper 1. The wood chips on the material holding plate 51 will reach the position of the discharge channel 3, and due to the inclined arrangement of the discharge channel 3, the wood chips will enter the stirring barrel 71 along the discharge channel 3.

[0029] At the same time, the output rod 55 on the other side will drive the movable rod 54 to contact the inner wall of the movable slot 53, so that the L-shaped sliding rod 52 on the other side and the material holding plate 51 move upward, in addition, the transmission belt one 61 connects the power between the rotating rod 57 and the rotating rod 62, so that when the rotating rod 57 rotates, the rotating rod 62 also rotates, and the push rod 63 swings around the rotating rod 62 as the center, and the inner wall of the output slot 64 on the push rod 63 is in contact with the receiving rod 65, at this time the receiving rod 65 transmits the force to the swing rod 66, and the swing rod 66 drives the shaft rod 67 to rotate, further driving the guide plate 68 to incline to the other side.

[0030] At this time, the sawdust on the conveying belt 4 will fall onto the other side of the hopper 1 along the inclined direction of the guide plate 68, and when the sawdust accumulated on the other side of the hopper 1 reaches a certain degree, the ultrasonic level sensor 59 controls the servo motor 58 to reverse, so that the rotating rod 57, the rotating ring 56 and the output rod 55 are reversed, at this time the movable rod 54 will resist the movable groove 53 on the L-shaped sliding rod 52, so that the L-shaped sliding rod 52 under the hopper 51 containing sawdust falls, and the L-shaped sliding rod 52 under the hopper 51 not containing sawdust rises, at the same time the guide plate 68 will move in the opposite direction as described above and tilt to the other side.

[0031] In addition, during the process of driving the swing of the shaft rod 67, the output slot 64 under the shift rod 63 will also resist the resistance rod 79, and drive the driving rod 74 to deflect through the resistance rod 79. Since the two driving rods 74 are connected by the transmission belt 78, the two driving rods 74 rotate in the same direction, at this time the position of the notch 77 on the bottom control disc 75 of the driving rod 74 will rotate to the position of the feeding pipe 73, at this time the sawdust water and chemical agent in the two feeding barrels 72 will fall into the stirring barrel 71, and then mix the sawdust and the chemical agent with the sawdust water through the stirring barrel 71.

[0032] Through this quantitative mixing, it can ensure the accurate proportion of each batch of sound insulation board material composition, not only can prevent the sound insulation board filler from being too much, which may cause the internal structure of the sound insulation board to be loose, cracks, uneven density, etc., but also can avoid the increase of the internal gap of the sound insulation board when the amount is insufficient, which reduces the density, thereby weakening the reflection and absorption capacity of sound, in addition, compared with the idle period after each quantitative mixing in the past. This uninterrupted quantitative mixing can also reduce energy consumption and equipment wear and tear in the production process, at the same time, the continuous production process can also reduce the waste of raw materials and improve the material utilization rate, so as to achieve the purpose of saving, and is conducive to further optimizing the function of energy-saving building material production special equipment.

[0033] The treated sawdust is discharged through the bottom of the stirring barrel 71, enters the inside of the screw auger 82 through the feeding hopper 83, and then the screw auger 82 is started to discharge the treated sawdust into the mixing barrel 84, and then the limestone clay is also put into the mixing barrel 84 for mixing treatment, finally the mixed material is manually laid into the mold 96.

[0034] Subsequently, a stepper motor or other rotary drive source is used to drive the threaded rod 93 to rotate, causing the connecting rod 94 and the material bucket 95 to move along the track of the slide 92. At the same time, the material in the material bucket 95 is also spread flat in the mold 96 above the mixture of sawdust and limestone clay. During the movement of the material bucket 95, the vibrator 97 is activated, causing the mold 96 to vibrate. The vibration causes slight displacement and disturbance of the material in the mold 96. This disturbance can disrupt the stable environment around the bubbles, making it easier for the bubbles to separate from the material. At the same time, the vibration can accelerate the diffusion speed of the gas in the material. When the material is vibrated, the movement of gas molecules becomes more active, and they can diffuse from the inside of the material to the surface more quickly, thus being discharged from the mold 96. In this way, during the production of the sound insulation board, the vibration removes the deep-seated bubbles in the material, making the internal structure of the material more uniform and enhancing the structural stability of the sound insulation board. In addition, after the bubbles are removed, the structure of the material is more uniform and can better withstand various external forces.

[0035] It should be noted that, in this document, relational terms such as "first" and "second" are used merely to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such a process, method, article, or apparatus. Without further limitations, an element defined by the phrase "comprising one..." does not exclude the presence of other identical elements in the process, method, article, or apparatus that includes said element.

[0036] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A kind of quick manufacturing equipment of bionic soundproof board, including feed hopper (1), the feed port (2) is opened in the upper portion of feed hopper (1), two discharge channels (3) are opened symmetrically in the inside of feed hopper (1), the transmission belt (4) is fixedly connected with the upper portion of feed hopper (1), it is characterized in that, A quantitative assembly is arranged in the feeding hopper (1); The quantitative assembly comprises two material containing plates (51) which are slidably connected in the feeding hopper (1) at the positions of the discharge channels (3), the bottom ends of the two material containing plates (51) are fixedly connected with L-shaped sliding rods (52), the L-shaped sliding rods (52) extend to the lower side of the feeding hopper (1) through the bottom of the feeding hopper (1), the two L-shaped sliding rods (52) are oppositely arranged, the outer surfaces of the two L-shaped sliding rods (52) are both provided with movable grooves (53) at the adjacent positions, the two L-shaped sliding rods (52) are movably connected with an output rod (55) between them, the two ends of the output rod (55) are also provided with movable grooves (53), the movable grooves of the output rod (55) are provided with movable rods (54), the two movable rods (54) are slidably arranged in the movable grooves (53) of the L-shaped sliding rods (52), the middle part of the output rod (55) is provided with a rotating ring (56), the inside of the rotating ring (56) is fixedly connected with a rotating rod (57), the end of the rotating rod (57) is provided with a servo motor (58), and the inside of the feeding hopper (1) is provided with an ultrasonic level sensor (59).

2. The rapid manufacturing apparatus of a biomimetic soundproof and corrosion resistant board according to claim 1, characterized in that: The two discharge channels (3) are not connected, the two discharge channels (3) are both arranged in an inclined manner, the two L-shaped sliding rods (52) are slidably connected with the feeding hopper (1), the rotating rod (57) is rotatably connected with the feeding hopper (1), and the shell of the servo motor (58) is arranged on the feeding hopper (1).

3. The apparatus for rapid manufacturing of a biomimetic soundproof and corrosion resistant panel according to claim 2, wherein: The rotating rod (57) is provided with a material stirring assembly, the outer surface of the rotating rod (57) is provided with a transmission belt one (61), the other end of the transmission belt one (61) is provided with a rotating rod (62), the outer surface of the rotating rod (62) is fixedly connected with a stirring rod (63), the stirring rod (63) is provided with two output grooves (64), the upper output groove (64) is movably connected with a receiving rod (65), the end of the receiving rod (65) is fixedly connected with a swing rod (66), the end of the swing rod (66) away from the receiving rod (65) is fixedly connected with a shaft rod (67), and the end of the shaft rod (67) away from the swing rod (66) is fixedly connected with a guide plate (68).

4. The apparatus according to claim 3, wherein: The rotating rod (62) is rotatably connected with the feeding hopper (1), the shaft rod (67) is rotatably connected with the feeding hopper (1), and the guide plate (68) is arranged between the transmission belt (4) and the feeding port (2).

5. The apparatus for rapid manufacturing of a biomimetic soundproof and corrosion resistant panel according to claim 4, wherein: The side of the feeding hopper (1) is provided with a feeding assembly, the feeding hopper (1) is fixedly connected with a stirring barrel (71) at the position of the discharge channel (3), the top end of the stirring barrel (71) is fixedly connected with two feeding barrels (72), the bottom ends of the two feeding barrels (72) are fixedly connected with feeding pipes (73), the interiors of the two feeding barrels (72) are rotatably connected with driving rods (74), the bottom ends of the two driving rods (74) are fixedly connected with control discs (75), the two control discs (75) are both provided with arc-shaped grooves (76), the two control discs (75) are both provided with two notches (77) in the arc-shaped grooves (76), the two driving rods (74) are commonly provided with a transmission belt two (78) through belt pulleys, and the outer surface of the driving rod (74) close to the feeding hopper (1) is fixedly connected with a resisting rod (79).

6. The apparatus for rapid manufacturing of a biomimetic soundproof and corrosion resistant panel according to claim 5, wherein: The feeding pipe (73) is slidably connected with the arc-shaped groove (76), the feeding pipe (73) is matched with the notch (77), and the resisting rod (79) is movably connected with the lower output groove (64) of the pushing rod (63).

7. The apparatus according to claim 6, wherein: The bottom of the stirring barrel (71) is provided with a mixing assembly, the mixing assembly comprises a support plate (81) fixedly connected at the bottom end of the feeding hopper (1), a spiral auger (82) fixedly connected at the top of the support plate (81), a feeding hopper (83) fixedly connected below the spiral auger (82) and located directly below the stirring barrel (71), and a mixing barrel (84) fixedly connected between the mixing barrel (84) and the support plate (81) and arranged below one end of the spiral auger (82) away from the feeding hopper (83).

8. The apparatus according to claim 7, wherein: The bottom of the support plate (81) is provided with a vibrating assembly, the vibrating assembly comprises a bottom plate (91) fixedly connected at the bottom end of the support plate (81), a sliding groove (92) formed in the side of the bottom plate (91), a threaded rod (93) rotatably connected in the sliding groove (92), a connecting rod (94) threadedly connected to the outer surface of the threaded rod (93), a paving barrel (95) fixedly connected to one end of the connecting rod (94) away from the threaded rod (93), a mold (96) fixedly connected below the paving barrel (95) at the top of the support plate (81), and a vibrator (97) mounted on the side of the mold (96).

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