Water fetching machine with stable vibration

Abstract

The utility model provides a stable-vibration water fetching machine, and relates to the technical field of water fetching machines, and the stable-vibration water fetching machine is characterized in that the stable-vibration water fetching machine comprises a support, a trough is arranged above the support, the cross section of the trough in the length direction is of a U-shaped structure, and a feeding port is formed in one end of the trough in the length direction; a material outlet is formed in the other end, in the length direction, of the material groove, an air outlet is formed in the bottom, close to the material outlet, of the material groove, an air blower is arranged on the lower portion of the support, and the output end of the air blower is communicated with the air outlet through a hose; an overturning guide roller is rotationally arranged between two side walls facing each other in the middle of the trough and comprises a main shaft part with a square axial section and an auxiliary shaft part parallel to and close to the edge of the main shaft part. The water fetching machine with stable vibration has the advantage that the dewatering efficiency of the material strips is enhanced while the material strips are stably and uniformly conveyed.

Description

Technical Field

[0001] The present application relates to the technical field of water pumping machines, and in particular to a water pumping machine with stable vibration. Background Art

[0002] During the production process, the raw materials need to be cut by the extruder to form strips, and then transported to the water pump for dehydration to facilitate subsequent processing. During the operation of the water pump, the strips enter the trough from the feed port, and the turning shaft transports the strips and removes water for the first time. When the strips reach the discharge port, the blower sends air to remove the moisture on the surface of the strips for the second time.

[0003] The flip shaft structure of a traditional water-pumping machine is composed of two secondary shafts on both sides of the transmission shaft. When this structure is working, since the two secondary shafts are in parallel positions opposite to each other, the material strips experience a large intermittent conveying effect during the process of being rotated, causing obvious vibration of the overall structure of the water-pumping machine, resulting in the aggregation or interruption of material strips, making it difficult to achieve a uniform and smooth dehydration effect.

[0004] Improvements are urgently needed to address the above issues. Utility Model Content

[0005] The purpose of the present application is to provide a water-beating machine with stable vibration, which has the advantages of achieving stable and uniform transportation of material strips while enhancing the dehydration efficiency of the material strips.

[0006] The present application provides a water pump with stable vibration, and the technical solution is as follows:

[0007] The invention comprises a bracket, a material trough is arranged above the bracket, the cross section of the material trough along the length direction is a U-shaped structure, a feed port is provided at one end of the material trough along the length direction, a discharge port is provided at the other end of the material trough along the length direction, an air outlet is provided at the bottom of the material trough near the discharge port, a blower is arranged at the lower part of the bracket, and the output end of the blower is connected to the air outlet through a hose;

[0008] A flip guide roller is rotatably arranged in the middle of the material trough between two side walls facing each other. The flip guide roller includes a main shaft portion with a square axial cross-section and a secondary shaft portion arranged parallel to and close to the edge of the main shaft portion. A motor is arranged on the upper part of the bracket, and the output end of the motor is transmission-connected to the transmission end of the flip guide roller.

[0009] The stable-vibration water-beating machine provided in the present application includes a bracket, which is used as a supporting carrier for other components. A material trough is arranged above the bracket to provide an operating space for conveying, dehydrating and classifying and storing material strips. The cross-section of the material trough along the length direction is a U-shaped structure, which is convenient for the entry and exit of material strips at both ends and is conducive to the cleaning operation after daily use. A feed port is opened at one end of the material trough along the length direction for filling and entering the material strips, and a discharge port is opened at the other end of the material trough along the length direction for accurately discharging the material strips. An air outlet is arranged at the bottom of the material trough near the discharge port for the material strips that are about to be discharged from the discharge port. The strips of material are blown dry by air to blow away the moisture on the surface of the strips of material. A blower is arranged at the lower part of the bracket to realize air supply, so that the air sent out is blown out from the air outlet to dry the strips of material passing through the air outlet, remove the moisture on the surface of the strips of material, and realize the secondary removal effect of the moisture on the surface of the strips of material. The output end of the blower is connected to the air outlet through a hose to form an air supply channel to ensure the efficient delivery of the air, which is convenient for the subsequent accurate drying of the strips of material. A turning guide roller is rotatably arranged between the two side walls facing each other in the middle of the material trough, and the turning guide roller includes a main shaft portion with a square axial section, a main shaft portion parallel to and close to the main shaft portion, and a main shaft portion parallel to and close to the main shaft portion. A secondary shaft portion is arranged on the edge of the shaft portion, and a motor is arranged on the upper part of the bracket. The output end of the motor is transmission-connected with the transmission end of the flip guide roller. Through the arrangement of the above structure, when the flip guide roller rotates at a high speed, the secondary shaft portion plays a contact-type driving role on the material strip, and directly picks up the material strip from the material trough. During this action, since the secondary shaft portion rotates synchronously with the main shaft portion, the material strip also generates centrifugal force during the driving process, and the moisture on the material strip also generates centrifugal force with the material strip. The centrifugal force of the moisture is greater than the weight and adhesion of the moisture, so the moisture is thrown out under the centrifugal action of the high-speed rotation of the flip guide roller. , thereby separating from the material strips and achieving the initial water removal effect. At the same time, since the axial cross-section of the main shaft is square, the secondary shaft is parallel to and close to the edge of the main shaft, and the flip guide roller is in the process of high-speed rotation, the secondary shaft arranged at the edge of the main shaft rotates evenly and synchronously with the main shaft. The structural feature of the secondary shaft being arranged every 90° in the radial direction of the main shaft makes the centrifugal force generated by it more uniform and stable, thereby having a more uniform and balanced conveying effect, reducing the vibration of the overall structure during operation, and thereby achieving smooth and uniform conveying of the material strips while enhancing the dehydration efficiency of the material strips.

[0010] Further, in the present application, the axial cross section of the secondary shaft portion is circular.

[0011] The present application provides a water-beating machine with stable vibration, and the axial cross-section of the secondary shaft part is circular, which is used to increase the contact area between the secondary shaft part and the material strip during the high-speed rotation of the flip guide roller. As an action structure, the secondary shaft part has the main function of driving the material strip, realizing the transportation of the material strip, and removing the water on the surface of the material strip under the action of centrifugal force. In the process of picking up the material strip, the secondary shaft part needs to perform frequent contact-type picking-up actions with the material strip. When the axial cross-section of the secondary shaft part is circular, the contact area between the secondary shaft part and the material strip becomes larger, and the fault tolerance of the secondary shaft part in picking up the material strip is also improved. Under the same number and frequency of actions, the secondary shaft part drives more material strips and has higher efficiency. On this basis, the material strip can be evenly and efficiently transported, and the water on the surface of the material strip can be removed, avoiding the accumulation of material strips or large-area vacancies, thereby ensuring that the overall structure reduces vibration during the working process due to the smooth and uniform transportation of the material strip, enhancing the stability of the overall structure during the working process, and further enhancing the dehydration efficiency of the material strip while realizing the smooth and uniform transportation of the material strip.

[0012] Furthermore, in the present application, a gap is left between the secondary shaft portion and the main shaft portion.

[0013] The present application provides a water pump with stable vibration, and a gap is left between the secondary shaft part and the main shaft part. When the amount of water is too large, the secondary shaft part and the main shaft part have a drainage function to screen out excess water. That is, when the flip guide roller is rotating at high speed, the material strips may contain a large amount of water due to contact with the material trough, and when the secondary shaft part drives the material strips, the material strips are driven and picked up as the secondary shaft part rotates. When there is too much water on the surface of the material strips, the excess water will flow out and detach through the gap left between the secondary shaft part and the main shaft part, thereby achieving a drainage effect between the secondary shaft part and the main shaft part, and efficiently screening out a large amount of water on the surface of the material strips, thereby further enhancing the dehydration efficiency of the material strips while achieving smooth and uniform transportation of the material strips.

[0014] Further, in the present application, the axial cross-sectional dimension of the secondary shaft portion is smaller than the axial cross-sectional dimension of the primary shaft portion.

[0015] The present application provides a water-pumping machine with stable vibration, in which the axial cross-sectional size of the secondary shaft portion is smaller than that of the main shaft portion, so as to make the main shaft portion, which is the basic rotating part, more stable. That is, the main shaft portion with a square axial cross-section has a larger size, and thus has a more uniform and balanced centrifugal force when rotating at high speed, thereby ensuring the stability of the overall structure and reducing the vibration of the overall structure caused by the rotation of the flip guide roller. The secondary shaft portion, which is the synchronous following rotating part, has a smaller size and is evenly arranged on the four regular edges of the main shaft portion. Therefore, the centrifugal force generated by the secondary shaft portion in the process of synchronously rotating with the main shaft portion is uniform and stable, and will not be too large or too small. When the secondary shaft portion rotates at high speed with the main shaft portion, the vibration effect generated by it is also weaker, thereby achieving smooth and uniform transportation of the material strips and enhancing the dehydration efficiency while reducing the vibration generated by the overall structure during operation.

[0016] Furthermore, in the present application, the material trough is provided with a guide plate between the flip guide roller and the feed port, and the distance between the two surfaces of the guide plate facing each other gradually decreases as it moves away from the feed port.

[0017] Furthermore, in the present application, the two outer walls of the guide plate facing each other are smooth arc-shaped structures.

[0018] Furthermore, in the present application, the geometric slope of the two outer walls of the guide plate facing each other gradually decreases as they move away from the feed port, and the minimum spacing between the two surfaces of the guide plate facing each other is smaller than the axial length of the flip guide roller.

[0019] Furthermore, in the present application, a first guide roller is rotatably provided between the inner walls on both sides of the material trough near the feed port, and a second guide roller is rotatably provided between the inner walls on both sides of the material trough near the discharge port, and the diameter of the second guide roller is greater than the diameter of the first guide roller.

[0020] Furthermore, in the present application, the material trough is provided with an air guide plate above the air outlet, the air guide plate is inclined toward the flip guide roller, and the air outlet area formed by the air guide plate and the air outlet is located obliquely below the side of the second guide roller close to the flip guide roller.

[0021] Furthermore, in the present application, a cover is provided on the top of the material trough, a rib is provided on the edge of the cover, and the top of the material trough is located within the covering area formed by the cover and the rib.

[0022] As can be seen from the above, the present application provides a water-beating machine with stable vibration, including a bracket, which is used as a supporting carrier for other components. A material trough is arranged above the bracket to provide an operating space for the transportation, dehydration and classified storage of material strips. The cross-section of the material trough along the length direction is a U-shaped structure, which is convenient for the entry and exit of material strips at both ends and is conducive to the cleaning operation after daily use. A feed port is provided at one end of the material trough along the length direction for filling and entering the material strips, and a discharge port is provided at the other end of the material trough along the length direction for accurate discharge of the material strips. An air outlet is provided at the bottom of the material trough near the discharge port for supplying air to the material strips that are about to go out of the discharge port. The blower is provided at the bottom of the bracket to realize air supply, so that the air is blown out from the air outlet, and the material strips passing through the air outlet are dried to remove the moisture on the surface of the material strips, so as to realize the secondary removal effect of the moisture on the surface of the material strips. The output end of the blower is connected with the air outlet through a hose to form an air supply channel to ensure the efficient delivery of the air, so as to facilitate the subsequent accurate drying of the material strips. A turning guide roller is rotatably provided between the two side walls facing each other in the middle of the material trough, and the turning guide roller includes a main shaft portion with a square axial section, and a secondary shaft portion parallel to and close to the edge of the main shaft portion. The motor, the output end of the motor is connected to the transmission end of the turning guide roller. Through the arrangement of the above structure, when the turning guide roller rotates at a high speed, the secondary shaft part plays a contact-type driving role on the material strip, and directly picks up the material strip from the material trough. In this action process, since the secondary shaft part rotates synchronously with the main shaft part, the material strip also generates centrifugal force in the process of driving, and the moisture on the material strip also generates centrifugal force with the material strip. The centrifugal force of the moisture is greater than the weight and adhesion of the moisture. The moisture is thrown out under the centrifugal action of the high-speed rotation of the turning guide roller, thereby separating from the material strip, achieving a preliminary removal effect of the moisture. At the same time, due to the axial section of the main shaft The surface is square, the secondary shaft is parallel to and close to the edge of the main shaft, and the secondary shaft arranged at the edge of the main shaft rotates evenly and synchronously with the main shaft during the high-speed rotation of the flip guide roller. The secondary shaft is arranged every 90° in the radial direction of the main shaft, which makes the centrifugal force it generates more uniform and stable, thus achieving a more uniform and balanced conveying effect, reducing the vibration of the overall structure during operation, and thus achieving smooth and uniform conveying of the material strips while enhancing the dehydration efficiency of the material strips; the axial cross-section of the secondary shaft is circular, which is used to increase the contact area between the secondary shaft and the material strips during the high-speed rotation of the flip guide roller. As an action structure, the secondary shaft has the main function of driving the material strips, realizing the conveying of the material strips, and removing the moisture on the surface of the material strips by the centrifugal force.In the process of picking up the material strips, the secondary shaft part needs to perform frequent contact-type picking-up actions with the material strips. When the axial cross-section of the secondary shaft part is circular, the contact area between the secondary shaft part and the material strips becomes larger, and the fault tolerance rate of the secondary shaft part in picking up the material strips is also improved. Under the condition of the same number and frequency of actions, the secondary shaft part drives more material strips with higher efficiency. On this basis, the material strips can be transported evenly and efficiently, and the moisture on the surface of the material strips can be removed, avoiding the accumulation of material strips or large-area vacancies, thereby ensuring that the overall structure is stable and even during operation due to the material strips. The material strips are uniformly conveyed and vibration is reduced, thereby enhancing the stability of the overall structure during operation, thereby achieving smooth and uniform conveying of the material strips and further enhancing the dehydration efficiency of the material strips; a gap is left between the secondary shaft and the main shaft, which is used to enable the secondary shaft and the main shaft to have a drainage function when the water volume is too large, and to screen out excess water, that is, when the flip guide roller is rotating at a high speed, the material strips may contain a large amount of water due to contact with the material trough, and when the secondary shaft drives the material strips, the material strips are driven and picked up with the rotation of the secondary shaft. When there is too much water on the surface of the material strips, the excess water will The water will flow out and detach through the gap left between the secondary shaft and the main shaft, thereby achieving a drainage effect between the secondary shaft and the main shaft, and efficiently screening out a large amount of water on the surface of the material strip, thereby further enhancing the dehydration efficiency of the material strip while achieving smooth and uniform transportation of the material strip; the axial cross-sectional size of the secondary shaft is smaller than the axial cross-sectional size of the main shaft, which is used to make the main shaft as the basic rotating part more stable, that is, the main shaft with a square axial cross-section has a larger size, and has a more uniform and balanced centrifugal force when rotating at high speed, thereby ensuring the stability of the overall structure and reducing the vibration of the overall structure caused by the rotation of the flip guide roller. The secondary shaft, which is the synchronous following rotating part, has a smaller size and is evenly arranged at the four regular edges of the main shaft. Therefore, the centrifugal force generated by the secondary shaft in the process of synchronously rotating with the main shaft is uniform and stable, and there will be no excessive or small situation. When the secondary shaft rotates at high speed with the main shaft, the vibration effect generated by it is also weaker, thereby achieving smooth and uniform transportation of the material strip and enhancing the dehydration efficiency while reducing the vibration of the overall structure during operation.

[0023] Other features and advantages of the present application will be described in the following description, and partly become apparent from the description, or be understood by practicing the embodiments of the present application. The purpose and other advantages of the present application can be realized and obtained by the structures specifically pointed out in the written description and the drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] Figure 1 This is one of the structural schematic diagrams of a water pump with stable vibration provided in this application.

[0025] Figure 2The second structural schematic diagram of a water pump with stable vibration provided in this application.

[0026] Figure 3 The third structural schematic diagram of a water pump with stable vibration provided in this application.

[0027] Figure 4 A schematic structural diagram of a turning guide roller of a water pump with stable vibration provided in the present application.

[0028] Figure 5 This is the fourth structural schematic diagram of a water pump with stable vibration provided in the present application.

[0029] In the figure: 1. bracket; 2. material trough; 201. feed port; 202. discharge port; 203. air outlet; 3. blower; 4. hose; 5. turning guide roller; 501. main shaft; 502. secondary shaft; 6. motor; 7. guide plate; 8. first guide roller; 9. second guide roller; 10. sealing plate. DETAILED DESCRIPTION

[0030] The technical solutions in the present application will be clearly and completely described below in conjunction with the drawings in the present application. Obviously, the described embodiments are only a part of the embodiments of the present application, rather than all the embodiments. The components of the present application generally described and shown in the drawings here can be arranged and designed in various different configurations. Therefore, the following detailed description of the embodiments of the present application provided in the drawings is not intended to limit the scope of the present application for protection, but merely represents the selected embodiments of the present application. Based on the embodiments of the present application, all other embodiments obtained by those skilled in the art without making creative work belong to the scope of protection of the present application.

[0031] It should be noted that similar reference numerals and letters represent similar items in the following drawings, so once an item is defined in one drawing, it does not need to be further defined and explained in subsequent drawings. At the same time, in the description of this application, the terms "first", "second", etc. are only used to distinguish the description and cannot be understood as indicating or implying relative importance.

[0032] Please refer to Figures 1 to 4 As shown, the present application provides a water pump with stable vibration, including a bracket 1, a material trough 2 is arranged above the bracket 1, the cross section of the material trough 2 along the length direction is a U-shaped structure, a feed port 201 is opened at one end of the material trough 2 along the length direction, a discharge port 202 is opened at the other end of the material trough 2 along the length direction, an air outlet 203 is arranged at the bottom of the material trough 2 near the discharge port 202, a blower 3 is arranged at the lower part of the bracket 1, and the output end of the blower 3 is connected to the air outlet 203 through a hose 4;

[0033] A flip guide roller 5 is rotatably arranged in the middle of the material trough 2 between the two side walls facing each other. The flip guide roller 5 includes a main shaft portion 501 with a square axial cross-section, and a secondary shaft portion 502 arranged parallel to and close to the edge of the main shaft portion 501. A motor 6 is arranged on the upper part of the bracket 1, and the output end of the motor 6 is transmission-connected to the transmission end of the flip guide roller 5.

[0034] Specifically, the flip shaft structure of a traditional water-pumping machine is provided with two secondary shafts on both sides of the transmission shaft. When this structure is working, since the two secondary shafts are in parallel positions opposite to each other, the material strips experience a large intermittent conveying effect during the process of being rotated, causing obvious vibration of the overall structure of the water-pumping machine, resulting in the aggregation or interruption of the material strips, making it difficult to achieve a uniform and smooth dehydration effect.Therefore, in order to solve the above-mentioned problems, the present application provides a water-beating machine with stable vibration, including a bracket 1, which is used as a supporting carrier for other components. A material trough 2 is arranged above the bracket 1 to provide an operating space for the transportation, dehydration and classification and storage of material strips. The cross-section of the material trough 2 along the length direction is a U-shaped structure, which is convenient for the entry and exit of material strips at both ends, and is conducive to the cleaning operation after daily use. A feed port 201 is provided at one end of the material trough 2 along the length direction for filling and entering the material strips, and a discharge port 202 is provided at the other end of the material trough 2 along the length direction for accurate discharge of the material strips. An air outlet 203 is provided at the bottom of the material trough 2 near the discharge port 202 for the material strips that are about to be discharged from the trough. The strips of material coming out of the outlet 202 are blown dry by air so that the moisture on the surface of the strips of material is blown away. A blower 3 is provided at the lower part of the bracket 1 for supplying air so that the air is blown out from the outlet 203 to dry the strips of material passing through the outlet 203, remove the moisture on the surface of the strips of material, and achieve a secondary removal effect of the moisture on the surface of the strips of material. The output end of the blower 3 is connected to the outlet 203 through a hose 4 to form an air supply channel to ensure efficient air transportation and facilitate the subsequent accurate drying of the strips of material. A turning guide roller 5 is rotatably provided at the middle part of the material trough 2 between the two side walls facing each other. The turning guide roller 5 includes a main shaft portion 501 with a square axial section, a parallel and A secondary shaft portion 502 is arranged near the edge of the main shaft portion 501, and a motor 6 is arranged on the upper part of the bracket 1. The output end of the motor 6 is transmission-connected to the transmission end of the flip guide roller 5. Through the arrangement of the above structure, when the flip guide roller 5 is rotating at a high speed, the secondary shaft portion 502 plays a contact-type driving role on the material strip, and directly picks up the material strip from the material trough 2. During this action, since the secondary shaft portion 502 rotates synchronously with the main shaft portion 501, the material strip also generates centrifugal force during the driving process, and the moisture on the material strip also generates centrifugal force with the material strip. The centrifugal force of the moisture is greater than the weight and adhesion of the moisture, so the moisture is thrown out under the centrifugal action of the high-speed rotation of the flip guide roller 5. , thereby separating from the material strips and achieving a preliminary water removal effect. At the same time, since the axial cross-section of the main shaft portion 501 is square, the secondary shaft portion 502 is parallel to and close to the edge of the main shaft portion 501. During the high-speed rotation of the flip guide roller 5, the secondary shaft portion 502 arranged at the edge of the main shaft portion 501 rotates evenly and synchronously with the main shaft portion 501. The structural feature of the secondary shaft portion 502 being arranged every 90° in the radial direction of the main shaft portion 501 makes the centrifugal force generated by it more uniform and stable, thereby having a more uniform and balanced conveying effect, reducing the vibration of the overall structure during operation, and thereby achieving smooth and uniform conveying of the material strips while enhancing the dehydration efficiency of the material strips.

[0035] More specifically, in this embodiment, the height of the bottom surface of the material trough 2 gradually increases as it approaches the discharge port 202, and the height of the feed port 201 is lower than the height of the discharge port 202. Therefore, in the process of conveying the material strips, when the material strips have not reached the turning guide roller 5 or the air outlet 203, more moisture on the surface of the material strips can flow along the bottom surface of the material trough 2 to the feed port 201, thereby achieving timely discharge of moisture, thereby further enhancing the dehydration efficiency.

[0036] In some preferred embodiments, the axial cross section of the secondary shaft portion 502 is circular.

[0037] Specifically, the axial cross section of the secondary shaft portion 502 is circular, which is used to increase the contact area between the secondary shaft portion 502 and the material strip during the high-speed rotation of the flip guide roller 5. As an action structure, the secondary shaft portion 502 mainly functions to drive the material strip, realize the transportation of the material strip, and remove the moisture on the surface of the material strip under the action of centrifugal force. In the process of picking up the material strips, the secondary shaft portion 502 needs to perform frequent contact-type picking-up actions with the material strips. When the axial cross-section of the secondary shaft portion 502 is circular, the contact area between the secondary shaft portion 502 and the material strips becomes larger, and the fault tolerance rate of the secondary shaft portion 502 in picking up the material strips is also improved. Under the conditions of the same number and frequency of actions, the secondary shaft portion 502 drives more material strips with higher efficiency. On this basis, the material strips can be transported evenly and efficiently, and the moisture on the surface of the material strips can be removed, avoiding the accumulation of material strips or large areas of vacancies, thereby ensuring that the overall structure reduces vibration during operation due to the smooth and uniform transportation of the material strips, enhancing the stability of the overall structure during operation, and further enhancing the dehydration efficiency of the material strips while achieving smooth and uniform transportation of the material strips.

[0038] In some preferred embodiments, a gap is left between the secondary shaft portion 502 and the primary shaft portion 501 .

[0039] Specifically, a gap is left between the secondary shaft portion 502 and the main shaft portion 501, which is used to enable the secondary shaft portion 502 and the main shaft portion 501 to have a drainage function when the amount of water is too large, and to screen out excess water. That is, when the flip guide roller 5 is rotating at high speed, the material strips may contain a large amount of water due to contact with the material trough 2, and when the secondary shaft portion 502 drives the material strips, the material strips are driven and picked up as the secondary shaft portion 502 rotates. When there is too much water on the surface of the material strips, the excess water will flow out and detach through the gap left between the secondary shaft portion 502 and the main shaft portion 501, thereby achieving a drainage effect between the secondary shaft portion 502 and the main shaft portion 501, and efficiently screening out a large amount of water on the surface of the material strips, thereby further enhancing the dehydration efficiency of the material strips while achieving smooth and uniform transportation of the material strips.

[0040] In some preferred embodiments, the axial cross-sectional dimension of the secondary shaft portion 502 is smaller than the axial cross-sectional dimension of the primary shaft portion 501 .

[0041] Specifically, the axial cross-sectional dimension of the secondary shaft portion 502 is smaller than that of the main shaft portion 501, which is used to make the main shaft portion 501, which is the basic rotating part, more stable. That is, the main shaft portion 501 with a square axial cross-section has a larger size. When rotating at a high speed, it has a more uniform and balanced centrifugal force, thereby ensuring the stability of the overall structure and reducing the vibration of the overall structure caused by the rotation of the flip guide roller 5. Since the secondary shaft portion 502, which is the synchronous following rotating part, is smaller in size and is evenly arranged at the four regular edges of the main shaft portion 501, the centrifugal force generated by the secondary shaft portion 502 in the process of synchronously rotating with the main shaft portion 501 is uniform and stable, and there is no situation that it is too large or too small. When the secondary shaft portion 502 rotates at a high speed with the main shaft portion 501, the vibration effect it generates is also weaker, thereby achieving smooth and uniform transportation of the material strips and enhancing the dehydration efficiency while reducing the vibration generated by the overall structure during operation.

[0042] In some preferred embodiments, the material trough 2 is provided with a guide plate 7 between the turning guide roller 5 and the feed port 201 , and the distance between the two mutually facing surfaces of the guide plate 7 gradually decreases as it moves away from the feed port 201 .

[0043] Specifically, in order to enable the material strips to be efficiently conveyed to the turning guide roller 5 and avoid the phenomenon of material strip accumulation or large-area vacancies, in the present embodiment, a guide plate 7 is provided between the turning guide roller 5 and the feed port 201 in the material trough 2, and the distance between the two surfaces of the guide plate 7 facing each other gradually decreases as it moves away from the feed port 201. Through the arrangement of the above structure, after the material strips enter from the feed port 201, under the action of the guide plate 7, the material strips gradually move toward the middle as the structure of the guide plate 7 changes in the process of approaching the turning guide roller 5 until they reach the turning guide roller 5, thereby achieving efficient and uniform conveying effect, preventing the material strips from suddenly piling up too much or having large-area vacancies, and avoiding excessive vibration of the overall structure due to uneven material strip conveying, thereby achieving smooth and uniform conveying of the material strips while enhancing the dehydration efficiency.

[0044] In some preferred embodiments, the two outer walls of the guide plate 7 facing each other are smooth arc-shaped structures.

[0045] Specifically, in order to enable the material strips to be conveyed to the turning guide roller 5 more efficiently and further avoid the phenomenon of material strip accumulation or large-area vacancy, in the present embodiment, the two outer walls of the guide plate 7 facing each other are smooth arc-shaped structures. Through the arrangement of the above structure, the two outer walls of the guide plate 7 facing each other can play a smoother guiding role for the material strips. When the material strips contact the two outer walls of the guide plate 7, the friction force is small, and the material strips can move smoothly along the guide plate 7 without hindrance until they move smoothly to the turning guide roller 5, thereby achieving a smooth and efficient conveying effect for the material strips, so that the turning guide roller 5 always has a sufficient number of evenly arriving material strips for dehydration and conveying, thereby preventing the overall structure from generating excessive vibration due to uneven material strip conveying, thereby achieving smooth and even conveying of the material strips while enhancing the dehydration efficiency.

[0046] In some preferred embodiments, the geometric slope of the two facing outer walls of the guide plate 7 gradually decreases as they move away from the feed inlet 201 , and the minimum distance between the two facing surfaces of the guide plate 7 is less than the axial length of the turning guide roller 5 .

[0047] Specifically, in order to prevent the material strips from being guided and transported outside the working area of ​​the flip guide roller 5, and to prevent the flip guide roller 5 from being unable to efficiently transport and remove water from the material strips, in the present embodiment, the geometric slopes of the two outer walls of the guide plate 7 facing each other gradually decrease as they move away from the feed port 201, so that the material strips near the feed port 201 can quickly move toward the middle under the guiding action of the guide plate 7, thereby achieving an efficient guiding effect, while the material strips far away from the discharge port 202 and close to the flip guide roller 5 can achieve a relatively gentle guiding and moving-together effect, which is conducive to the efficient guiding and transport of the material strips. The minimum spacing between the two mutually facing surfaces of the guide plate 7 is smaller than the axial length of the flip guide roller 5, which is used to make the outlet portion of the guide plate 7 located within the working area of ​​the flip guide roller 5, so that all the material strips guided and conveyed by the guide plate 7 are received by the flip guide roller 5 and the conveying and dewatering operations are completed, thereby achieving smooth and uniform conveying of the material strips, enhancing the dehydration efficiency, and preventing the overall structure from vibrating excessively due to uneven conveying of the material strips.

[0048] In some preferred embodiments, a first guide roller 8 is rotatably provided between the inner walls on both sides of the material trough 2 near the feed port 201 , and a second guide roller 9 is rotatably provided between the inner walls on both sides of the material trough 2 near the discharge port 202 , and the diameter of the second guide roller 9 is greater than the diameter of the first guide roller 8 .

[0049] Specifically, in order to achieve orderly and smooth conveying of the material strips and to achieve a more uniform and efficient conveying effect for the material strips, in the present embodiment, a first guide roller 8 is rotatably arranged between the inner walls on both sides of the material trough 2 near the feed port 201, and a second guide roller 9 is arranged between the inner walls on both sides of the material trough 2 near the discharge port 202. Through the arrangement of the above structure, the first guide roller 8 plays a good conveying role for the material strips just entering from the feed port 201, and promotes the efficient and uniform conveying of the material strips to the flip guide roller 5; the second guide roller 9 plays a good conveying role for the material strips to be discharged from the discharge port 202, and promotes the efficient and timely discharge of the material strips from the discharge port 202. The diameter of the second guide roller 9 is larger than that of the first guide roller 8, which ensures that the conveying effect of the second guide roller 9 is stronger than that of the first guide roller 8, ensuring that the material strips after the water is removed can be discharged in a timely and efficient manner, preventing the material strips from piling up, and avoiding excessive vibration of the overall structure due to uneven conveying or piling up of the material strips, thereby achieving smooth and uniform conveying of the material strips while further enhancing the dehydration efficiency.

[0050] In some preferred embodiments, the material trough 2 is provided with an air guide plate above the air outlet 203, and the air guide plate is inclined toward the flip guide roller 5. The air outlet area formed by the air guide plate and the air outlet 203 is located obliquely below the side of the second guide roller 9 close to the flip guide roller 5.

[0051] Specifically, in order to enhance the air supply effect of the air outlet 203, make the delivered air more targeted, and fully dry the material strips, in the present embodiment, an air guide plate is provided above the material trough 2 near the air outlet 203, and the air guide plate is inclined toward the flip guide roller 5. The air outlet area formed by the air guide plate and the air outlet 203 is located obliquely below the side of the second guide roller 9 close to the flip guide roller 5. Through the arrangement of the above structure, after the material strips pass through the initial dewatering operation of the flip guide roller 5, before the material strips are discharged from the discharge port 202, the air outlet area formed by the air guide plate and the air outlet 203 is The material strips passing through here are fully and evenly blown, and after the moisture on the surface of the material strips is blown dry, since the air outlet area formed by the air guide plate and the air outlet 203 is located at an angle below the second guide roller 9 close to the flip guide roller 5, the material strips with the surface moisture blown dry can be timely guided by the second guide roller 9 and transported to the discharge port 202, so as to be discharged timely and efficiently through the discharge port 202, thereby enhancing the dehydration efficiency while avoiding the accumulation of material strips, so that the material strips can be efficiently and timely transported and discharged, preventing the overall structure from excessive vibration due to uneven transportation or accumulation of material strips.

[0052] In some preferred embodiments, a cover is provided on the top of the material trough 2, and a rib is provided on the edge of the cover. The top of the material trough 2 is located within the covering area formed by the cover and the rib.

[0053] Specifically, since the material strips are accompanied by jumping and water droplets splashing during the process of being transported and removing moisture, in order to prevent the material strips and moisture from escaping from the material trough 2, in this embodiment, a cover is provided on the top of the material trough 2 to limit the material strips in the material trough 2 and prevent the material strips from flying out from the top of the material trough 2, and also to prevent water droplets from flying out from the top of the material trough 2. A rib is provided at the edge of the cover to limit and shield the edge of the material trough 2 and prevent the material strips or moisture from flying out from the edge of the material trough 2. The top of the material trough 2 is located in the covering area formed by the cover and the rib, which is used to fully limit the upper opening area of ​​the material trough 2 and prevent the material strips or moisture from flying out from the upper area of ​​the material trough 2. More specifically, in this embodiment, Figure 5 As shown, a sealing plate 10 is provided on the outer wall of the bracket 1 to play a safety protection role and ensure the stability and safety of the blower 3 and the motor 6 during operation.

[0054] Through the above technical scheme, the water-beating machine with stable vibration provided by the present application includes a bracket 1, which is used as a supporting carrier for other components. A material trough 2 is arranged above the bracket 1 to provide an operating space for the transportation, dehydration and classified storage of material strips. The cross-section of the material trough 2 along the length direction is a U-shaped structure, which is convenient for the entry and exit of material strips at both ends and is conducive to the cleaning operation after daily use. A feed port 201 is provided at one end of the material trough 2 along the length direction for filling and entering the material strips, and a discharge port 202 is provided at the other end of the material trough 2 along the length direction for accurate discharge of the material strips. An air outlet 203 is provided at the bottom of the material trough 2 near the discharge port 202 for supplying air to the material strips that are about to go out of the discharge port 202. Blow dry, so that the moisture on the surface of the material strip is blown away, the lower part of the bracket 1 is provided with a blower 3 for realizing air supply, so that the delivered air is blown out from the air outlet 203, the material strip passing through the air outlet 203 is blown dry, and the moisture on the surface of the material strip is removed, so as to realize the secondary removal effect of the moisture on the surface of the material strip. The output end of the blower 3 is connected with the air outlet 203 through a hose 4, which is used to form an air supply channel to ensure the efficient delivery of wind and facilitate the subsequent accurate drying of the material strip; the middle part of the material trough 2 is rotatably provided with a turning guide roller 5 between the two side walls facing each other, the turning guide roller 5 includes a main shaft portion 501 with a square axial cross section, and a secondary shaft portion 502 arranged parallel to and close to the edge of the main shaft portion 501. The upper part of the bracket 1 is provided with There is a motor 6, the output end of the motor 6 is connected to the transmission end of the turning guide roller 5. Through the above-mentioned structure, when the turning guide roller 5 rotates at a high speed, the secondary shaft part 502 plays a contact-type driving role on the material strip, and directly picks up the material strip from the material trough 2. During this action, since the secondary shaft part 502 rotates synchronously with the main shaft part 501, the material strip also generates centrifugal force during the driving process, and the moisture on the material strip also generates centrifugal force with the material strip. The centrifugal force of the moisture is greater than the weight and adhesion of the moisture. The moisture is thrown out under the centrifugal action of the high-speed rotation of the turning guide roller 5, thereby separating from the material strip, achieving a preliminary removal effect of the moisture. At the same time, since the axial cross-section of the main shaft part 501 is square The secondary shaft 502 is parallel to and close to the edge of the main shaft 501. During the high-speed rotation of the flip guide roller 5, the secondary shaft 502 arranged at the edge of the main shaft 501 rotates evenly and synchronously with the main shaft 501. The secondary shaft 502 is arranged every 90° in the radial direction of the main shaft 501, so that the centrifugal force generated by it is more uniform and stable, thereby having a more uniform and balanced conveying effect, reducing the vibration of the overall structure during the working process, and thus realizing the smooth and uniform conveying of the material strips while enhancing the dehydration efficiency of the material strips; the axial cross-section of the secondary shaft 502 is circular, which is used to increase the contact area between the secondary shaft 502 and the material strips during the high-speed rotation of the flip guide roller 5. As an action structure, the secondary shaft 502 has the main function of driving the material strips, realizing the conveying of the material strips, and removing the moisture on the surface of the material strips under the action of centrifugal force.In the process of picking up the material strips, the secondary shaft portion 502 needs to perform frequent contact-type picking-up actions with the material strips. When the axial cross-section of the secondary shaft portion 502 is circular, the contact area between the secondary shaft portion 502 and the material strips becomes larger, and the fault tolerance rate of the secondary shaft portion 502 in picking up the material strips is also improved. Under the condition of the same number and frequency of actions, the secondary shaft portion 502 drives more material strips with higher efficiency. On this basis, the material strips can be transported evenly and efficiently, and the moisture on the surface of the material strips can be removed, avoiding the accumulation of material strips or large-area vacancies, thereby ensuring that the overall structure is reduced due to the smooth and uniform transportation of the material strips during operation. The auxiliary shaft 502 and the main shaft 501 have a gap, which is used to drain water when the amount of water is too large, so that the auxiliary shaft 502 and the main shaft 501 have a drainage function to screen out excess water, that is, when the flip guide roller 5 is rotating at a high speed, the material strips may have a large amount of water due to contact with the material trough 2, and when the auxiliary shaft 502 drives the material strips, the material strips are driven and picked up with the rotation of the auxiliary shaft 502. When there is too much water on the surface of the material strips, the excess water will pass through the auxiliary shaft 502. The gap left between the shaft portion 502 and the main shaft portion 501 allows water to flow out and detach, thereby achieving a drainage effect between the secondary shaft portion 502 and the main shaft portion 501, and efficiently screening out a large amount of water on the surface of the material strip, thereby further enhancing the dehydration efficiency of the material strip while achieving smooth and uniform transportation of the material strip; the axial cross-sectional size of the secondary shaft portion 502 is smaller than the axial cross-sectional size of the main shaft portion 501, which is used to make the main shaft portion 501, which is the basic rotating part, more stable, that is, the main shaft portion 501 with a square axial cross-section has a larger size, and has a more uniform and balanced centrifugal force when rotating at a high speed, ensuring the overall structure The stability of the structure is improved, and the vibration of the overall structure caused by the rotation of the flip guide roller 5 is reduced. Since the secondary shaft portion 502, which is the synchronous following rotation part, is small in size and is evenly arranged at the four regular edges of the main shaft portion 501, the centrifugal force generated by the secondary shaft portion 502 in the process of synchronously rotating with the main shaft portion 501 is uniform and stable, and there is no situation that it is too large or too small. When the secondary shaft portion 502 rotates at a high speed with the main shaft portion 501, the vibration effect it generates is also weaker. Therefore, while achieving smooth and uniform transportation of the material strips and enhancing the dehydration efficiency, the vibration of the overall structure during operation is reduced.

[0055] The above description is only an embodiment of the present application and is not intended to limit the scope of protection of the present application. For those skilled in the art, the present application may have various modifications and variations. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present application shall be included in the scope of protection of the present application.

Claims

1. A water pump with stable vibration, characterized in that: The invention comprises a support (1), wherein a material trough (2) is arranged above the support (1), wherein the cross section of the material trough (2) along the length direction is a U-shaped structure, wherein one end of the material trough (2) along the length direction is provided with a material inlet (201), and the other end of the material trough (2) along the length direction is provided with a material outlet (202), and an air outlet (203) is arranged at the bottom of the material trough (2) near the material outlet (202), and a blower (3) is arranged at the bottom of the support (1), and the output end of the blower (3) is connected to the air outlet (203) via a hose (4); A turning guide roller (5) is rotatably arranged in the middle of the material trough (2) between two side walls facing each other, the turning guide roller (5) comprising a main shaft portion (501) having a square axial cross section, and a secondary shaft portion (502) arranged parallel to and close to the edge of the main shaft portion (501). A motor (6) is arranged on the upper part of the bracket (1), and the output end of the motor (6) is drivingly connected to the transmission end of the turning guide roller (5).

2. The water pumping machine with stable vibration according to claim 1, characterized in that: The axial cross section of the secondary shaft portion (502) is circular.

3. The water pumping machine with stable vibration according to claim 1, characterized in that: A gap is left between the secondary shaft portion (502) and the primary shaft portion (501).

4. The water pumping machine with stable vibration according to claim 1, characterized in that: The axial cross-sectional dimension of the secondary shaft portion (502) is smaller than the axial cross-sectional dimension of the primary shaft portion (501).

5. The water pump with stable vibration according to claim 1, characterized in that: The material trough (2) is provided with a guide plate (7) between the turning guide roller (5) and the feed opening (201), and the distance between two mutually facing surfaces of the guide plate (7) gradually decreases as it moves away from the feed opening (201).

6. The water pumping machine with stable vibration according to claim 5, characterized in that: The two outer walls of the guide plate (7) facing each other are smooth arc-shaped structures.

7. The water pumping machine with stable vibration according to claim 6, characterized in that: The geometric slope of the two mutually facing outer walls of the guide plate (7) gradually decreases as they move away from the feed port (201), and the minimum distance between the two mutually facing surfaces of the guide plate (7) is less than the axial length of the turning guide roller (5).

8. The water pumping machine with stable vibration according to claim 1, characterized in that: The material trough (2) is rotatably provided with a first guide roller (8) between the inner walls on both sides close to the material inlet (201), and the material trough (2) is provided with a second guide roller (9) between the inner walls on both sides close to the material outlet (202), and the diameter of the second guide roller (9) is greater than the diameter of the first guide roller (8).

9. The water pumping machine with stable vibration according to claim 8, characterized in that: The material trough (2) is provided with an air guide plate above the air outlet (203), the air guide plate being arranged obliquely toward the flip guide roller (5), and an air outlet area formed by the air guide plate and the air outlet (203) being located obliquely below the second guide roller (9) on the side close to the flip guide roller (5).

10. The water pumping machine with stable vibration according to claim 1, characterized in that: A cover is provided on the top of the material trough (2), a retaining edge is provided at the edge of the cover, and the top of the material trough (2) is located within the covering area formed by the cover and the retaining edge.

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