Environment-friendly chicken slaughtering filtering device

Abstract

The present application relates to the technical fields of chicken slaughtering filtration, and discloses an environment-friendly filtering device for chicken slaughtering, which comprises a filtering box assembly, the filtering box assembly comprises a filtering main box, a filtering mechanism is arranged at the top area inside the filtering main box, the filtering mechanism comprises industrial filter cloth, the industrial filter cloth is used for filtering chicken slaughtering wastewater, and a plurality of groups of extrusion cleaning mechanisms are uniformly arranged at the top of the industrial filter cloth; the environment-friendly filtering device for chicken slaughtering can continuously push the impurities in the center of the filter cloth to the edge and implement extrusion through the rotating filter cloth combined with the radially telescopic extrusion cleaning mechanism, thereby significantly improving the solid-liquid separation efficiency and dehydration effect, ensuring the thoroughness of wastewater filtration, and effectively solving a series of problems such as filter cloth blockage, high moisture content of impurities, high energy consumption and existence of cleaning dead angle of the traditional filtering device.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of chicken slaughter filtration, more particularly, it relates to an environment-friendly filtering device for chicken slaughter. BACKGROUND

[0002] In the chicken slaughter processing industry, wastewater treatment is an indispensable link, and its treatment effect is directly related to environmental protection and resource utilization efficiency. At present, the industry generally uses filtering devices to preliminarily treat the wastewater containing feathers, meat scraps, fat and other impurities generated during the slaughtering process, aiming to achieve solid-liquid separation. Such devices usually use filter screens or filter cloths as the core filter medium, and intercept solid impurities by mechanical means, allowing wastewater to pass through, so as to achieve the purpose of preliminary purification.

[0003] However, the existing filtering technology and device have exposed several outstanding problems to be solved in actual application. First, the traditional static filtering or simple rotating filtering method is low in efficiency, and impurities are easy to accumulate on the surface of the filter cloth to form filter cakes, which not only seriously hinders the filtering efficiency, but also causes the filter cloth to be blocked, requiring frequent shutdown for cleaning, affecting the continuity of production. Second, the intercepted impurities usually contain a large amount of water, and the existing equipment lacks effective extrusion dewatering mechanism, resulting in high water content of the impurities, increasing the cost of subsequent transportation and treatment, and the wastewater recovery rate is also not ideal, causing waste of water resources. Third, the entire filtering and impurity removal process often relies on electric drive, which consumes a lot of energy and fails to fully utilize the natural resources such as the gravity potential energy of wastewater, resulting in high operating cost. Finally, in the cleaning process, the defects in the structure design of the device are easy to leave cleaning dead angles, and the residual impurities can breed bacteria and produce odors, which negatively affect the working environment and the service life of the equipment.

[0004] These problems have long plagued the wastewater treatment link of chicken slaughter enterprises, restricting the improvement of production efficiency and environmental protection level. Therefore, the industry urgently needs a new type of filtering device. SUMMARY

[0005] In order to overcome the above technical problems, the present application provides an environment-friendly filtering device for chicken slaughter.

[0006] The present application achieves the above-mentioned purposes through the following technical solutions:

[0007] An environment-friendly filtering device for chicken slaughter, comprising a filtering box assembly, the filtering box assembly comprising a filtering main box;

[0008] A filtering mechanism is arranged at the top area inside the filtering main box, the filtering mechanism comprising an industrial filter cloth, the industrial filter cloth being used for filtering chicken slaughter wastewater;

[0009] The top of the industrial filter cloth is uniformly provided with a plurality of groups of extrusion cleaning mechanisms for extruding water in impurities on the top of the industrial filter cloth and for directional conveying of the impurities.

[0010] The middle part inside the filter main box is provided with an auxiliary mechanism, the auxiliary mechanism comprises a wind wheel group, the gravitational potential energy of the falling wastewater filtered by the filtering mechanism is converted into kinetic energy of the industrial filter cloth and the wind wheel group, so that the wind wheel group rotates to generate wind energy;

[0011] The outer side of the auxiliary mechanism is provided with a bellows assembly, the bellows assembly comprises a wind pipe and a wind cover, the wind cover collects the wind energy generated by the rotation of the wind wheel group and conveys the wind energy to a designated position through the wind pipe.

[0012] As a further optimization scheme of the application, the filter box assembly further comprises a support frame provided on the top of the filter main box, the top of the support frame is provided with a servo motor, the output end of the servo motor is provided with a transmission shaft penetrating into the middle part inside the filter main box, the top of the outer side of the filter main box is provided with a discharge port for discharging impurities filtered by the industrial filter cloth.

[0013] As a further optimization scheme of the application, the filtering mechanism further comprises a limiting disc provided on the top of the inner wall of the filter main box, the limiting disc bearing is provided on the outer side of the transmission shaft, the limiting disc is tightly connected with the inner wall of the filter main box, the bottom of the limiting disc is provided with an annular guide groove, one side of the annular guide groove is a convex groove structure, the convex groove of the annular guide groove is close to the edge position of the limiting disc, the other side of the annular guide groove is close to the center position of the limiting disc.

[0014] As a further optimization scheme of the application, the transmission shaft is tightly sleeved with a support circular table at the position of the bottom of the limiting disc, the outer side of the support circular table is tightly connected with the industrial filter cloth, the outer side of the industrial filter cloth is tightly connected with a support ring, the outer side of the support ring is embedded in the position of the inner wall of the filter main box, the inner wall of the filter main box is provided with a first sliding groove slidingly engaged with the support ring, the outer side of the support circular table is uniformly provided with support strips supporting the support ring, the top of the filter main box is provided with an external water inlet pipe, the output end of the water inlet pipe is obliquely directed to the top area of the industrial filter cloth.

[0015] As a further optimization scheme of the present application, the extrusion cleaning mechanism comprises support push rods uniformly arranged on the top of the support circular table, the support push rods are long strip structures, one end of the support push rod is close to the center position of the support circular table and is provided with a limiting column, the limiting column penetrates through the upper and lower ends of the support push rod, the top of the support circular table is uniformly provided with a linear guide groove which is clamped with the bottom end of the limiting column, the top of the limiting column is clamped in the inside of the annular guide groove, and the support push rod is subjected to the double limiting and guiding actions of the annular guide groove and the linear guide groove through the limiting column.

[0016] As a further optimization scheme of the present application, the end of the support push rod away from the center of the support circular table is provided with an arc-shaped push plate, the bottom of the arc-shaped push plate is matched with the top of the industrial filter cloth, and the two sides of the end of the support push rod close to the limiting column are symmetrically provided with limiting sliding blocks, and the top of the support circular table is provided with limiting grooves matched with the limiting sliding blocks.

[0017] As a further optimization scheme of the present application, the auxiliary mechanism further comprises a water collecting hopper, the water collecting hopper is arranged at the bottom area of the industrial filter cloth, and the top of the water collecting hopper is tightly connected with the inner wall of the filter main box, the bottom of the water collecting hopper is a flat bottom structure, a bearing sleeve is arranged on the outside of the transmission shaft, the bottom of the water collecting hopper is provided with a drainage through hole, the bottom of the outside of the water collecting hopper is provided with a limiting groove, a water retaining ring plate is arranged on the outside of the bottom of the water collecting hopper, and the inside of the water retaining ring plate is provided with a limiting convex ring which slides with the limiting groove.

[0018] As a further optimization scheme of the present application, the bottom of the water retaining ring plate is tightly connected with a middle support ring, the inside of the middle support ring is uniformly provided with a water wheel group, the end of the water wheel group close to the transmission shaft is commonly provided with an inner support ring which is tightly sleeved on the outside of the transmission shaft, the outside of the middle support ring is uniformly provided with a wind wheel group, the end of the wind wheel group away from the middle support ring is commonly provided with an outer support ring, the outside of the outer support ring is embedded in the inner wall of the filter main box, and the inner wall position of the filter main box is provided with a second sliding groove which slides and limits the outer support ring.

[0019] As a further optimization scheme of the present application, the output end of the drainage through hole is opposite to the top area of the water wheel group, the blade inclination directions of the wind wheel group and the water wheel group are opposite, the top of the wind cover is tightly and sealingly connected with the outside of the water collecting hopper, the bottom of the wind cover is tightly and sealingly connected with the inner wall of the filter main box, the bottom of the air pipe and the inner wall of the filter main box form an air flow chamber, the wind wheel group rotates to push air flow to gather in the inside of the air flow chamber, and the output end of the air pipe is opposite to the input end position of the discharge port.

[0020] As a further optimization scheme of the present application, the bottom of the middle support ring is slidingly connected with a drainage funnel, the output end of the drainage funnel is provided with a water outlet pipe extending to the outside of the filter main tank, the bottom of the filter main tank is of an open structure, the bottom of the inner wall of the filter main tank supports the outer side of the drainage funnel, and the bottom of the transmission shaft is supported by the inner wall of the drainage funnel.

[0021] The present application has the following advantages:

[0022] 1、The present application can continuously push the impurities in the center of the filter cloth to the edge and implement extrusion by the rotating filter cloth combined with the radially telescopic extrusion cleaning mechanism, thereby significantly improving the solid-liquid separation efficiency and dewatering effect, ensuring the thoroughness of wastewater filtration, and effectively solving a series of problems such as filter cloth blockage, high moisture content of impurities, high energy consumption and existence of cleaning dead angle of the traditional filter device.

[0023] 2、The present application innovatively utilizes the gravitational potential energy of falling wastewater to drive the rotation of the water wheel set and the wind wheel set. This design not only converts the potential energy of wastewater into mechanical energy for assisting the rotation of the transmission shaft, reduces the dependence on electric power of the servo motor, and reduces the operating cost; at the same time, the airflow generated by the wind wheel set can also be collected to blow the extruded impurities out of the device, realizing the cyclic comprehensive utilization of energy and achieving the purpose of energy saving and consumption reduction.

[0024] 3、The present application cleverly supplements the cleaning of the cleaning dead angle of the edge of the filter cloth through the water flow impact of the water inlet pipe and the dispersing effect of the air pipe airflow, ensuring that the impurities are completely pushed to the discharge port and eliminating the hygiene problems caused by residual impurities. The entire device realizes automatic closed-loop operation from filtration, extrusion dewatering, energy recovery to impurity cleaning and discharge, greatly improving the efficiency, environmental protection and economy of chicken slaughter wastewater treatment. BRIEF DESCRIPTION OF DRAWINGS

[0025] Figure 1 is a schematic diagram of the three-dimensional structure of the present application;

[0026] Figure 2 is a schematic diagram of the three-dimensional structure of the present application;

[0027] Figure 3 is an enlarged sectional view of the internal structure of the filter main tank in the present application;

[0028] Figure 4 is a main sectional view of the filter main tank in the present application;

[0029] Figure 5 is a sectional view of the connection position structure of the internal parts of the filter main tank in the present application;

[0030] Figure 6It is the enlarged schematic view of the connecting structure of parts at the filtering mechanism and auxiliary mechanism in the application;

[0031] Figure 7 It is the enlarged sectional view of the structure at the auxiliary mechanism in the application;

[0032] Figure 8 It is the exploded schematic view of the structure at the auxiliary mechanism in the application;

[0033] Figure 9 It is the top view at the filtering mechanism in the application;

[0034] Figure 10 It is the exploded schematic view at the filtering mechanism in the application;

[0035] Figure 11 It is the bottom view at the limiting disc in the application;

[0036] Figure 12 It is the enlarged schematic view of the connecting structure of parts at the supporting push rod in the application;

[0037] Figure 13 It is the enlarged schematic view of the structure at the supporting circular table in the application.

[0038] In the figure:

[0039] 100, filtering box assembly; 200, air bellow assembly; 300, filtering mechanism; 400, auxiliary mechanism;

[0040] 101, filtering main box; 102, supporting frame; 103, servo motor; 104, water inlet pipe; 105, discharge port; 106, water outlet pipe; 107, transmission shaft; 108, first sliding groove; 109, second sliding groove;

[0041] 201, air pipe; 202, air bellow;

[0042] 301, limiting disc; 302, industrial filter cloth; 303, supporting ring; 304, arc-shaped push plate; 305, supporting push rod; 306, supporting circular table; 307, annular guide groove; 308, limiting sliding block; 309, limiting stand column; 310, straight line guide groove; 311, limiting groove;

[0043] 401, drainage funnel; 402, outer supporting ring; 403, air flow chamber; 404, water collecting hopper; 405, drainage through hole; 406, water blocking ring plate; 407, wind wheel group; 408, water wheel group; 409, middle supporting ring; 410, inner supporting ring; 411, limiting convex ring; 412, limiting concave groove. DETAILED DESCRIPTION

[0044] The subject matter described herein will now be discussed with reference to example implementations. It should be understood that discussions of these implementations are intended to serve as examples only and that changes to elements of the examples discussed can be made in light of the teachings provided herein without departing from the scope of the specification. Various examples can omit, substitute, or add various procedures or components in addition to those described or in lieu thereof. Also, features described in relation to some examples can be combined in other examples.

[0045] Embodiment 1

[0046] As shown in Figure 1 , Figure 2 , Figure 6 An environmentally friendly chicken slaughtering filtering device, comprising a filtering box assembly 100, the filtering box assembly 100 comprising a filtering main box 101;

[0047] A filtering mechanism 300 is arranged at the top area inside the filtering main box 101, the filtering mechanism 300 comprising an industrial filter cloth 302, the industrial filter cloth 302 being used for filtering chicken slaughtering wastewater;

[0048] As shown in Figure 1 , Figure 2 , Figure 3 , Figure 6 The filtering box assembly 100 further comprises a support frame 102 arranged at the top of the filtering main box 101, the top of the support frame 102 being provided with a servo motor 103, the output end of the servo motor 103 being provided with a transmission shaft 107 penetrating into the middle part inside the filtering main box 101, the top outside of the filtering main box 101 being provided with a discharge port 105, the discharge port 105 being used for discharging impurities filtered by the industrial filter cloth 302;

[0049] As shown in Figures 5 to 7 , Figures 9 to 13As shown, the filtering mechanism 300 further comprises a limiting disc 301 arranged on the top of the inner wall of the filtering main tank 101, the limiting disc 301 is arranged on the outside of the transmission shaft 107, the limiting disc 301 is tightly connected with the inner wall of the filtering main tank 101, the bottom of the limiting disc 301 is provided with an annular guide groove 307, one side of the annular guide groove 307 is a convex groove structure, the convex groove of the annular guide groove 307 is close to the edge position of the limiting disc 301, the other side of the annular guide groove 307 is close to the center position of the limiting disc 301, the outside of the transmission shaft 107 is tightly arranged with a supporting circular table 306 at the position of the bottom of the limiting disc 301, the outside of the supporting circular table 306 is tightly connected with an industrial filter cloth 302, the outside of the industrial filter cloth 302 is tightly connected with a supporting ring 303, the outside of the supporting ring 303 is embedded in the position of the inner wall of the filtering main tank 101, the inner wall of the filtering main tank 101 is provided with a first sliding groove 108 which is slidingly engaged with the supporting ring 303, the outside of the supporting circular table 306 is uniformly provided with supporting strips which support the supporting ring 303, the top of the filtering main tank 101 is provided with an external water inlet pipe 104, the output end of the water inlet pipe 104 is obliquely directed to the top area of the industrial filter cloth 302;

[0050] The top of the industrial filter cloth 302 is uniformly provided with a plurality of groups of extrusion cleaning mechanisms, which are used for extruding the moisture in the impurities on the top of the industrial filter cloth 302 and for directional conveying of the impurities, the extrusion cleaning mechanism comprises a supporting push rod 305 uniformly arranged on the top of the supporting circular table 306, the supporting push rod 305 is a long strip structure, one end of the supporting push rod 305 is close to the center position of the supporting circular table 306 and is provided with a limiting stand 309, the limiting stand 309 penetrates through the upper and lower ends of the supporting push rod 305, the top of the supporting circular table 306 is uniformly provided with a straight line guide groove 310 which is mutually engaged with the bottom end of the limiting stand 309, the top of the limiting stand 309 is engaged in the inside of the annular guide groove 307, the supporting push rod 305 is subjected to the double limiting and guiding actions of the annular guide groove 307 and the straight line guide groove 310 through the limiting stand 309, one end of the supporting push rod 305 away from the center of the supporting circular table 306 is provided with an arc-shaped push plate 304, the bottom of the arc-shaped push plate 304 is mutually adhered with the top of the industrial filter cloth 302, the two sides of the end of the supporting push rod 305 close to the limiting stand 309 are symmetrically provided with limiting sliding blocks 308, the top of the supporting circular table 306 is provided with limiting grooves 311 which are matched with the limiting sliding blocks 308;

[0051] As shown in Figures 3 to 8 The middle part of the inside of the filtering main tank 101 is provided with an auxiliary mechanism 400, the auxiliary mechanism 400 comprises a wind wheel group 407, the gravitational potential energy of the waste water falling after being filtered by the filtering mechanism 300 is converted into kinetic energy of the industrial filter cloth 302 and the wind wheel group 407, so that the wind wheel group 407 rotates to generate wind energy;

[0052] The auxiliary mechanism 400 further comprises a water collecting hopper 404, which is arranged at the bottom area of the industrial filter cloth 302, and the top of the water collecting hopper 404 is fixedly connected with the inner wall of the filter main tank 101, the bottom of the water collecting hopper 404 is of a flat bottom structure, and the bottom of the water collecting hopper 404 is sleeved with a bearing sleeve outside the transmission shaft 107, the bottom of the water collecting hopper 404 is provided with a water drainage through hole 405, the bottom outside the water collecting hopper 404 is provided with a limiting groove 412, the bottom outside the water collecting hopper 404 is sleeved with a water retaining ring plate 406, and the inner side of the water retaining ring plate 406 is provided with a limiting convex ring 411 which slides with the limiting groove 412, the bottom of the water retaining ring plate 406 is fixedly connected with a middle supporting ring 409, and the inner side of the middle supporting ring 409 is uniformly provided with a water wheel set 408, and the water wheel set 408 is provided with an inner supporting ring 410 which is fixedly sleeved outside the transmission shaft 107 at one end close to the transmission shaft 107, the outer side of the middle supporting ring 409 is uniformly provided with a wind wheel set 407, and the wind wheel set 407 is provided with an outer supporting ring 402 at one end away from the middle supporting ring 409, and the outer side of the outer supporting ring 402 is embedded in the inner wall of the filter main tank 101, and the inner wall of the filter main tank 101 is provided with a second sliding groove 109 which slides and limits the outer supporting ring 402;

[0053] The outer side of the auxiliary mechanism 400 is sleeved with a wind box assembly 200, the wind box assembly 200 comprises a wind pipe 201 and a wind cover 202, the wind cover 202 collects wind energy generated by the rotation of the wind wheel set 407 and delivers the wind energy to a designated position through the wind pipe 201, the output end of the water drainage through hole 405 is opposite to the top area of the water wheel set 408, the blades of the wind wheel set 407 and the water wheel set 408 are opposite in inclination direction, the top of the wind cover 202 is fixedly and sealingly connected with the outside of the water collecting hopper 404, the bottom of the wind cover 202 is fixedly and sealingly connected with the inner wall of the filter main tank 101, the bottom of the wind pipe 201 and the inner wall of the filter main tank 101 form an air flow chamber 403, the rotation of the wind wheel set 407 pushes air flow to gather inside the air flow chamber 403, the output end of the wind pipe 201 is opposite to the input end position of the discharge port 105, the bottom of the middle supporting ring 409 is slidingly connected with a water drainage funnel 401, the output end of the water drainage funnel 401 is provided with a water outlet pipe 106 which extends to the outside of the filter main tank 101, the bottom of the filter main tank 101 is of an open structure, the bottom of the inner wall of the filter main tank 101 supports the outside of the water drainage funnel 401, and the bottom of the transmission shaft 107 is supported by the inner wall of the water drainage funnel 401.

[0054] The use process of the environment-friendly chicken slaughtering filtering device is as follows: when the chicken slaughtering filtering device is used, the chicken slaughtering wastewater to be treated is delivered to the inside of the filter main tank 101 through the water inlet pipe 104, enters the top position of the industrial filter cloth 302, is filtered by the industrial filter cloth 302, the impurities are left on the top of the industrial filter cloth 302, and the filtered wastewater falls to the inside of the water collecting hopper 404 through the industrial filter cloth 302.

[0055] The starting servo motor 103 drives the transmission shaft 107 to rotate, and the transmission shaft 107 drives the support circular table 306 and the inner support ring 410 to rotate respectively;

[0056] The support circular table 306 drives the industrial filter cloth 302 and the support ring 303 to rotate, and at the same time drives the support push rod 305 to rotate;

[0057] At this time, the impurities on the top of the industrial filter cloth 302 are displaced in the direction of first moving away from the discharge port 105 and then moving close to the discharge port 105;

[0058] In the process of rotating the support push rod 305, the limiting column 309 at one end is limited and guided by the annular guide groove 307, and is constantly displaced away from the center of the support circular table 306, and then drives the arc-shaped push plate 304 through the support push rod 305 to push the impurities on the top of the industrial filter cloth 302 to the inner wall position of the filter main tank 101;

[0059] It needs to be specially pointed out that, since the arc-shaped push plate 304 and the support push rod 305 are in a plurality of groups, the arc-shaped push plate 304 and the support push rod 305 close to the output end of the water inlet pipe 104 are retracted at the inner side position of the support circular table 306, and the arc-shaped push plate 304 and the support push rod 305 away from the output end of the water inlet pipe 104 are completely unfolded;

[0060] Through the extrusion and pushing of the arc-shaped push plate 304 on the impurities on the top of the industrial filter cloth 302, on the one hand, the impurities located in the middle of the industrial filter cloth 302 are pushed to the edge position of the filter main tank 101, facilitating subsequent discharge from the position of the discharge port 105, and on the other hand, through the double extrusion action of the arc-shaped push plate 304 and the inner wall of the filter main tank 101, the wastewater in the impurities is further extruded and discharged, optimizing the problem of incomplete filtration of wastewater in the existing chicken slaughter wastewater impurities natural filtration;

[0061] In the process of rotating the support push rod 305 driven by the support circular table 306, through the limiting action of the limiting column 309 by the annular guide groove 307 and the straight guide groove 310, the support push rod 305 has a straight displacement driving force to the outside of the support circular table 306 while rotating, so as to realize the extrusion and pushing effect of the arc-shaped push plate 304;

[0062] The wastewater filtered by the industrial filter cloth 302 is collected by the water collecting hopper 404 and discharged from the position of the drainage through hole 405, and the wastewater discharged from the drainage through hole 405 has gravitational potential energy, which drives the water wheel set 408 to rotate, and in turn drives the inner support ring 410 and the middle support ring 409 to rotate, and the middle support ring 409 further drives the wind wheel set 407 to rotate;

[0063] Through the rotation of the wind wheel group 407, the airflow inside the airflow chamber 403 is pushed upwards, and the airflow outside the filter main tank 101 enters the inside of the airflow chamber 403 from the bottom of the filter main tank 101. The airflow inside the airflow chamber 403 is sprayed from the input end of the discharge port 105 under the guidance of the wind shield 202 and the conveying effect of the air pipe 201. The sprayed airflow drives the impurities on the top of the industrial filter cloth 302 that have been squeezed out of the filter main tank 101 from the output end of the discharge port 105, thereby realizing the filtering process of the chicken slaughter wastewater.

[0064] During the rotation of the water wheel group 408, the transmission shaft 107 inside the inner support ring 410 is rotated by the water wheel group 408, thereby further optimizing the use of the gravitational potential energy of the chicken slaughter wastewater and supplementing the driving force of the auxiliary servo motor 103, reducing the power input of the servo motor 103, and thereby saving production costs.

[0065] The wastewater output from the water wheel group 408 is collected by the drainage funnel 401 and discharged from the position of the water outlet pipe 106;

[0066] During the displacement of the arc-shaped push plate 304 driven by the support push rod 305, the arc-shaped radius of the arc-shaped push plate 304 is smaller than the inner diameter of the filter main tank 101, thereby causing the existence of a cleaning dead angle during the pushing of the impurities on the top of the industrial filter cloth 302. The wastewater flow output from the input end of the water inlet pipe 104 can drive the impurities in the dead angle area to be pushed, and at the same time, the airflow sprayed through the air pipe 201, most of which is discharged from the position of the discharge port 105, and a small part of which escapes to the two sides of the industrial filter cloth 302, thereby blowing the impurities in the dead angle area of the top of the industrial filter cloth 302 to the extrusion area of the arc-shaped push plate 304, thereby avoiding the problem of cleaning dead angle.

[0067] During the rotation of the middle support ring 409, the water blocking ring plate 406 is rotated, thereby making the limiting convex ring 411 rotate inside the limiting concave groove 412. The wastewater discharged from the drainage hole 405 is blocked by the water blocking ring plate 406, thereby avoiding the phenomenon of wastewater overflow.

[0068] The specific embodiments of the present application have been described above, but the embodiments of the present application are not limited to the above specific embodiments, and the above specific embodiments are only illustrative and not limiting. Those skilled in the art can make many forms under the inspiration of the embodiments of the present application, which are all within the protection scope of the embodiments of the present application.

Claims

1. An environmentally friendly filtration device for chicken slaughtering, characterized in that, Includes a filter housing assembly (100), which includes a main filter housing (101); The top area inside the filter main box (101) is provided with a filter mechanism (300), which includes an industrial filter cloth (302) for filtering chicken slaughter wastewater. The top of the industrial filter cloth (302) is uniformly provided with several sets of squeezing and cleaning mechanisms. These squeezing and cleaning mechanisms are used to squeeze out the moisture in the impurities on the top of the industrial filter cloth (302) and to directionally transport the impurities. An auxiliary mechanism (400) is provided in the middle of the filter main box (101). The auxiliary mechanism (400) includes a wind turbine assembly (407). The gravitational potential energy of the wastewater filtered by the filter mechanism (300) is converted into the kinetic energy of the industrial filter cloth (302) and the wind turbine assembly (407), so that the wind turbine assembly (407) rotates to generate wind energy. The auxiliary mechanism (400) is fitted with a bellows assembly (200) on its outer side. The bellows assembly (200) includes a duct (201) and a hood (202). The hood (202) collects the wind energy generated by the rotation of the wind turbine assembly (407) and delivers it through the duct (201) to the input end of the discharge port (105) for ejection. The output end of the servo motor (103) is provided with a drive shaft (107) that extends through the middle of the filter main box (101). The top of the outer side of the filter main box (101) is provided with a discharge port (105), which is used to discharge the impurities filtered by the industrial filter cloth (302). The filtration mechanism (300) also includes a limiting disc (301) disposed on the top of the inner wall of the filter main box (101), and the bottom of the limiting disc (301) is provided with an annular guide groove (307). A supporting frustum (306) is fastened to the outside of the drive shaft (107) at the bottom of the limiting disc (301). An industrial filter cloth (302) is fastened to the outside of the supporting frustum (306). A supporting ring (303) is fastened to the outside of the industrial filter cloth (302). The outside of the supporting ring (303) is embedded in the inner wall of the filter main box (101). The inner wall of the filter main box (101) is provided with a first sliding groove (108) that slides and engages with the supporting ring (303). Support bars that support the supporting ring (303) are evenly arranged on the outside of the supporting frustum (306). An external water inlet pipe (104) is provided on the top of the filter main box (101). The output end of the water inlet pipe (104) is obliquely facing the top area of ​​the industrial filter cloth (302). The squeezing cleaning mechanism includes support push rods (305) evenly arranged on the top of the support truncated cone (306). The support push rods (305) are elongated structures. One end of the support push rods (305) is located near the center of the support truncated cone (306) and is provided with a limiting column (309). The limiting column (309) passes through the upper and lower ends of the support push rods (305). The top of the support truncated cone (306) is evenly provided with straight guide grooves (310) that engage with the bottom end of the limiting column (309). The top of the limiting column (309) engages with the inside of the annular guide groove (307). The support push rods (305) are subject to the dual limiting and guiding effects of the annular guide groove (307) and the straight guide groove (310) through the limiting column (309). An arc-shaped push plate (304) is provided at one end of the support push rod (305) away from the center of the support frustum (306). The bottom of the arc-shaped push plate (304) is in contact with the top of the industrial filter cloth (302). Limiting sliders (308) are symmetrically provided on both sides of the support push rod (305) near the limiting column (309). A limiting groove (311) adapted to the limiting slider (308) is provided on the top of the support frustum (306).

2. The environmentally friendly chicken slaughtering filtration device according to claim 1, characterized in that, The filter housing assembly (100) also includes a support frame (102) disposed on the top of the filter main housing (101), and a servo motor (103) is disposed on the top of the support frame (102).

3. The environmentally friendly chicken slaughtering filtration device according to claim 2, characterized in that, The limiting disc (301) bearing is sleeved on the outside of the transmission shaft (107). The limiting disc (301) is tightly connected to the inner wall of the filter main box (101). One side of the annular guide groove (307) is a convex groove structure. The convex groove of the annular guide groove (307) is located near the edge of the limiting disc (301), and the other side of the annular guide groove (307) is located near the center of the limiting disc (301).

4. The environmentally friendly chicken slaughtering filtration device according to claim 2, characterized in that, The auxiliary mechanism (400) also includes a water collection hopper (404), which is located at the bottom area of ​​the industrial filter cloth (302). The top of the water collection hopper (404) is tightly connected to the inner wall of the filter main box (101). The bottom of the water collection hopper (404) is a flat bottom structure and is fitted with a bearing on the outside of the drive shaft (107). The bottom of the water collection hopper (404) is provided with a drainage through hole (405). The bottom of the outer side of the water collection hopper (404) is provided with a limiting groove (412). The bottom of the outer side of the water collection hopper (404) is fitted with a water baffle plate (406), and the inner side of the water baffle plate (406) is provided with a limiting protrusion (411) that slides with the limiting groove (412).

5. The environmentally friendly chicken slaughtering filtration device according to claim 4, characterized in that, The bottom of the water baffle plate (406) is fastened with a middle support ring (409). Water turbine groups (408) are evenly arranged on the inner side of the middle support ring (409). The end of the water turbine group (408) near the drive shaft (107) is provided with an inner support ring (410) fastened to the outside of the drive shaft (107). The outer side of the middle support ring (409) is evenly arranged with a wind turbine group (407). The end of the wind turbine group (407) away from the middle support ring (409) is provided with an outer support ring (402). The outer side of the outer support ring (402) is embedded in the inner wall of the filter main box (101). The inner wall of the filter main box (101) is provided with a second sliding groove (109) that slides and limits the outer support ring (402).

6. The environmentally friendly chicken slaughtering filtration device according to claim 5, characterized in that, The output end of the drainage through hole (405) is directly opposite to the top area of ​​the water turbine assembly (408). The blades of the impeller assembly (407) and the water turbine assembly (408) are tilted in opposite directions. The top of the wind shroud (202) is tightly sealed to the outside of the water collection hopper (404). The bottom of the wind shroud (202) is tightly sealed to the inner wall of the filter main box (101). An airflow chamber (403) is formed between the bottom of the air duct (201) and the inner wall of the filter main box (101). The impeller assembly (407) rotates and pushes the airflow to gather inside the airflow chamber (403). The output end of the air duct (201) is directly opposite to the input end of the discharge port (105).

7. The environmentally friendly chicken slaughtering filtration device according to claim 6, characterized in that, The bottom of the middle support ring (409) is slidably connected to a drainage funnel (401). The output end of the drainage funnel (401) is provided with a water outlet pipe (106) extending to the outside of the filter main box (101). The bottom of the filter main box (101) is an open structure. The bottom of the inner wall of the filter main box (101) supports the outside of the drainage funnel (401). The bottom of the drive shaft (107) is supported by the inner wall of the drainage funnel (401).

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