Factory frog culture and maintenance equipment

Abstract

The invention relates to the field of frog culture, and particularly discloses factory frog culture and maintenance equipment which comprises a base. The breeding bottom bin assemblies are connected with the base; the cross-shaped partition assembly is connected with the interior of the breeding bottom bin assembly; the combined cleaning assembly is connected with the interior of the breeding bottom bin assembly and used for combined cleaning of the cross-shaped partition assembly; wherein the breeding bottom bin assembly comprises a breeding bin assembly, and the breeding bin assembly is connected with the base; the frog breeding device has the advantages that alternate breeding and cleaning are achieved through the bottom bins on the two sides, directional driving is matched, the adjustable breeding plate is matched with frog growth, cleaning liquid spraying and brush cleaning are synchronously achieved, dirt is guided along an inclined face to be discharged in a centralized mode, and the frog breeding device is convenient to use and high in practicability. The sanitation degree of a breeding area is effectively improved, the stable breeding environment is guaranteed, and the breeding efficiency is improved.

Description

Technical Field

[0001] This invention relates to the frog farming industry, specifically to a factory-scale frog farming and maintenance equipment. Background Technology

[0002] Frogs, as an economically valuable species with both edible and medicinal properties, have tender, nutritious meat rich in high-quality protein and various minerals. Market demand continues to rise, driving the frog farming industry towards large-scale development. Currently, frog farming in my country mainly employs open-air pond rearing and extensive farming in simple greenhouses, with farming areas concentrated in the suitable southern regions. Farming scale ranges from family workshops to small and medium-sized farms. With the expansion of market demand, the production capacity of traditional farming methods can no longer meet the industry's development needs. Waste removal has long been a core technical challenge in frog farming. Frogs are carnivorous, and during farming, they produce large amounts of uneaten feed, feces, and body secretions, which accumulate directly at the bottom of the farming ponds. Because traditional farming ponds are mostly flat-bottomed and lack specialized waste collection and drainage designs, waste easily mixes with the water, leading to rapid water quality deterioration. Currently used manual removal methods are not only labor-intensive and inefficient, but also ineffective at cleaning deep-seated waste, resulting in incomplete cleaning and becoming a key bottleneck hindering the large-scale development of the frog farming industry. To solve these problems, there is an urgent need to develop a more suitable industrialized frog farming and maintenance equipment. Summary of the Invention

[0003] The purpose of this invention is to provide a factory-scale frog farming and maintenance equipment to solve the problems mentioned in the background art.

[0004] To achieve the above objectives, the present invention provides the following technical solution: A factory-scale frog farming and maintenance equipment includes: Base; At least two sets of aquaculture silo components, wherein the aquaculture silo components are connected to the base; A cross-shaped partition assembly, which is internally connected to the aquaculture silo assembly; A combined cleaning assembly, which is internally connected to the aquaculture silo assembly, is used for combined cleaning of the cross-partition assembly; The aquaculture silo assembly includes: A breeding chamber assembly, wherein the breeding chamber assembly is connected to a base; A dynamic top-fill component, which is internally connected to the breeding silo component, is used for zoned breeding management.

[0005] Compared with the prior art, the beneficial effects of the present invention are: by alternating breeding and cleaning in the bottom chambers on both sides, combined with directional driving and adjustable breeding boards adapted to frog growth, cleaning liquid spraying and brush cleaning are realized simultaneously, and sewage is guided and concentrated along the slope for discharge, which effectively improves the hygiene of the breeding area, ensures the stability of the breeding environment, improves breeding efficiency, and reduces management costs. Attached Figure Description

[0006] Figure 1 This is a schematic diagram of the internal structure of a factory-scale frog farming and maintenance equipment according to an embodiment of the present invention.

[0007] Figure 2 This is a schematic diagram of the external structure of a factory-scale frog farming and maintenance equipment according to an embodiment of the present invention.

[0008] Figure 3 This is a schematic diagram of the cross-shaped partition component in a factory-scale frog farming and maintenance equipment according to an embodiment of the present invention.

[0009] Figure 4 for Figure 1 A schematic diagram of the local structure at point A.

[0010] In the diagram: 1-Base, 2-Bottom silo assembly, 3-Bottom silo assembly, 4-Dynamic top silo assembly, 5-Cross partition assembly, 6-Combined cleaning assembly, 201-Lifting component, 202-Bottom silo, 203-Sludge silo, 204-Fixed shaft seat, 205-Built-in guide channel, 206-Sludge discharge control component, 207-Sludge collection cylinder, 401-Top silo, 402-Guide control component, 403-External guide channel, 501-Drive component, 502-Connecting shaft, 503-Limiting groove, 504-First sliding control component, 505-Bottom silo plate, 506-Driving plate, 601-Second sliding control component, 602-Limiting slide frame, 603-Third sliding control component, 604-Cleaning plate, 605-Connecting silo, 606-Spraying component, 607-Water storage tank. Detailed Implementation

[0011] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0012] A factory-scale frog farming and maintenance device, in one embodiment of the present invention, such as... Figure 1 and Figure 2As shown, it includes: a base 1; at least two sets of breeding silo components 2, the breeding silo components 2 being connected to the base 1; a cross-shaped partition component 5, the cross-shaped partition component 5 being connected to the interior of the breeding silo components 2; and a combined cleaning component 6, the combined cleaning component 6 being connected to the interior of the breeding silo components 2, for combined cleaning of the cross-shaped partition components 5; wherein, the breeding silo component 2 includes: a breeding silo component 3, the breeding silo component 3 being connected to the base 1; and a dynamic top silo component 4, the dynamic top silo component 4 being connected to the interior of the breeding silo component 3, for zoned breeding management.

[0013] In one embodiment of the present invention: like Figure 1 and Figure 2 As shown, the aquaculture silo assembly 2 includes: a lifting component 201 connected to the base 1; the lifting component 201 is an electric telescopic frame; a bottom silo 202 connected to the side of the lifting component 201 away from the base 1; a waste bin 203 located inside the bottom side of the bottom silo 202; at least two fixed shaft seats 204 connected to the interior of the bottom silo 202; and an internal guide channel 205 connected to the interior of the bottom silo 202 and located above the waste bin 203. Two sets of side-by-side breeding chamber components 2 constitute a breeding unit. Several breeding units are set up in the breeding area. The breeding chamber components 2 on both sides are used for frog breeding in different areas of the corresponding cross partition components 5. When the breeding time reaches the set time, one side of the breeding chamber component 2 is raised to the set height by the lifting component 201. Then, the frogs inside the raised side of the breeding chamber component 2 are directed and driven through the cross partition components 5 to the lower side of the breeding chamber component 2 via the built-in guide channel 205. Then, the cross partition components 5 are cleaned in combination by the combined cleaning component 6. The sewage generated during cleaning flows into the sewage bin 203 inside the chamber 202. Then, the raised side of the breeding chamber component 2 is reset. Then, the other side of the breeding chamber component 2 repeats the above operation to complete the cleaning of the other side of the cross partition components 5 and the driving away of frogs. The cross partition components 5 in the two sides of the breeding chamber component 2 are used alternately after cleaning, thereby improving the hygiene of the frog breeding area. In this application, the lifting component 201 is not limited to electric devices. It can also be driven by a linear motor, electric cylinder, or pneumatic cylinder, etc., as long as it can achieve longitudinal adjustment of the bottom compartment 202. No specific limitation is made here.

[0014] In one embodiment of the present invention: like Figure 1 and Figure 2As shown, the breeding silo assembly 3 also includes: a sewage control component 206, which is connected to the bottom of the sludge silo 203; the sewage control component 206 is an electromagnetic valve; and a sludge collection cylinder 207, which is connected to the base 1 and is located on the bottom side of the sewage control components 206 on both sides. The bottom side of the waste bin 203 is set with an sloping surface, and the lower side is connected to the sewage control component 206. The waste generated by the cross partition component 5 through the combined cleaning component 6 is guided by the sloping surface of the bottom side of the waste bin 203 to the position of the sewage control component 206. Then, the sewage control component 206 is opened periodically to discharge the waste into the collection cylinder 207 for collection.

[0015] In one embodiment of the present invention: like Figure 1 and Figure 2 As shown, the dynamic top hopper assembly 4 includes: a top hopper 401, which is connected to the top side of the bottom hopper 202; a flow control component 402, which is connected to the outside of the top hopper 401; the flow control component 402 is an electric telescopic plate frame; and an external guide channel 403, which is installed at an angle on the outside of the top hopper 401. The conduction control components 402 and external guide channels 403 of the two top compartments 401 are alternately arranged. The conduction control component 402 is used to connect the internal guide channel 205 with the top compartment 401. When one top compartment 401 is raised, the internal guide channel 205 on that side is connected to the outer position of the external guide channel 403 on the other side. When the conduction control component 402 of the other top compartment 401 is opened, the frog inside is driven away. The frog is guided through the internal guide channel 205 on that side to the external guide channel 403 on the other side, and then guided into the top compartment 401 on the other side through the external guide channel 403 on the other side, completing the alternation.

[0016] In one embodiment of the present invention: like Figure 3 As shown, the cross-shaped partition assembly 5 includes: a driving component 501, which is connected to the fixed shaft seats 204 on both sides; the driving component 501 is an electric rotating shaft seat; a connecting shaft 502, which is connected to the driving component 501; and several breeding plates 505, which are connected to the connecting shaft 502. The relative areas for simultaneous frog breeding using the two-sided cross-partition components 5 are as follows: Figure 2 In the shaded area, four sets of breeding plates 505 can be set on the connecting shaft 502. Each time, the driving component 501 drives the connecting shaft 502 and the breeding plate 505 to rotate 90 degrees, and the two connecting shafts 502 rotate in opposite directions. In this application, the driving component 501 is not limited to an electric rotating shaft seat. It can also be driven by a linear motor, electric cylinder, or pneumatic cylinder, etc., as long as it can realize the rotation adjustment of the connecting shaft 502. No specific limitation is made here.

[0017] In one embodiment of the present invention: like Figure 3 As shown, the cross-shaped partition assembly 5 further includes: a first sliding control member 504, which is disposed inside the limiting groove 503; the first sliding control member 504 is an electric slide; and a driving plate 506, which is connected to the first sliding control member 504. When the frogs are driven away, the first sliding control component 504 operates, driving the driving plate 506 to move horizontally along one side of the breeding plate 505 to the other side, completing the directional driving of the frogs on the breeding plate 505 and driving the frogs into the built-in guide channel 205 on that side. The height of the breeding plate 505 can be adjusted according to the size of the individual frogs to prevent the frogs from jumping over the driving plate 506 and not being driven away. After the frogs are driven away, the driving component 501 drives the connecting shaft 502 and the breeding plate 505 to rotate 90 degrees, waiting for cleaning by the combined cleaning component 6.

[0018] In one embodiment of the present invention: like Figure 4 As shown, the combined cleaning assembly 6 includes: at least two second sliding control members 601, which are slidably connected to the inner wall of the bottom compartment 202; the second sliding control members 601 are electric slides; a limiting slide frame 602 is connected to the second sliding control members 601 on both sides; a third sliding control member 603 is slidably connected to the limiting slide frame 602; the third sliding control member 603 is an electric slide; a cleaning plate 604 is connected to the third sliding control member 603; a connecting compartment 605 is connected to the third sliding control member 603; a spraying member 606 is connected to the connecting compartment 605; the spraying member 606 is a pressurized nozzle; and a water tank 607 is connected to the third sliding control member 603 and is connected to the connecting compartment 605. The water tank 607 contains cleaning fluid. When the breeding plate 505, which has just finished driving away the frogs, rotates to the bottom, the second sliding control component 601 drives the limiting slide frame 602 to move towards the side closer to the breeding plate 505, so that the brush on the cleaning plate 604 comes into contact with the breeding plate 505. Then, the third sliding control component 603 and the spraying component 606 operate synchronously. The spraying component 606 sprays the cleaning fluid onto the breeding plate 505 in a directional manner, while the brush on the cleaning plate 604 cleans the breeding plate 505 simultaneously.

[0019] The working principle of this invention is as follows: Two sets of side-by-side breeding chamber components 2 constitute a breeding unit. Several breeding units are set up in the breeding area. The breeding chamber components 2 on both sides respectively carry out frog breeding in different areas of the corresponding side cross partition components 5. When the breeding time reaches the set time, one side of the breeding chamber component 2 is raised to a set height by the lifting component 201. Then, the frogs inside the raised side of the breeding chamber component 2 are directed and driven through the cross partition components 5 to the lower side of the breeding chamber component 2 via the built-in guide channel 205. Then, the cross partition components 5 are cleaned in combination by the combined cleaning component 6. The sewage generated during cleaning flows into the sewage bin 203 inside the chamber 202. Then, the raised side of the breeding chamber component 2 is reset. Then, the other side of the breeding chamber component 2 repeats the above operation to complete the cleaning of the other side of the cross partition components 5 and the driving away of frogs. The cross partition components 5 in the two sides of the breeding chamber component 2 are used alternately after cleaning, thereby improving the hygiene of the frog breeding area. The bottom side of the waste bin 203 is set with an sloping surface, and the lower side is connected to the sewage control component 206. The waste generated by the cross partition component 5 through the combined cleaning component 6 is guided by the sloping surface of the bottom side of the waste bin 203 to the position of the sewage control component 206. Then, the sewage control component 206 is opened periodically to discharge the waste into the collection cylinder 207 for collection. The conduction control components 402 and external guide channels 403 on both sides of the top chamber 401 are alternately arranged. The conduction control component 402 is used to connect the internal guide channel 205 with the top chamber 401. When one side of the top chamber 401 is raised, the internal guide channel 205 on that side aligns with the outer side of the external guide channel 403 on the other side. When the conduction control component 402 of the other side of the top chamber 401 is opened, and the frogs inside are driven, the frogs are guided through the internal guide channel 205 on that side to the external guide channel 403 on the other side, and then guided into the other side of the top chamber 401 through the external guide channel 403, completing the alternation. The relative areas of the two sides of the cross partition assembly 5 for simultaneous frog breeding are as follows: Figure 2In the shaded area, four sets of breeding plates 505 can be set on the connecting shaft 502. Each time, the driving component 501 drives the connecting shaft 502 and the breeding plate 505 to rotate 90 degrees, and the two connecting shafts 502 rotate in opposite directions. When the frog is driven away, the first sliding control component 504 operates, driving the driving plate 506 to move horizontally along one side of the breeding plate 505 to the other side, completing the directional driving of the frog on the breeding plate 505, driving the frog into the built-in guide channel 205 on that side. The height of the breeding plate 505 can be adjusted according to the size of the individual frog to prevent the frog from jumping over the driving plate 506 and not being driven away. After the frog is driven away, the driving component 501 drives the connecting shaft 502 and the breeding plate 505 to rotate 90 degrees, waiting to be cleaned by the combined cleaning component 6. The water tank 607 contains cleaning fluid. When the breeding plate 505, which has just finished driving away the frogs, rotates to the bottom, the second sliding control component 601 drives the limiting slide frame 602 to move towards the side closer to the breeding plate 505, so that the brush on the cleaning plate 604 comes into contact with the breeding plate 505. Then, the third sliding control component 603 and the spraying component 606 operate synchronously. The spraying component 606 sprays the cleaning fluid onto the breeding plate 505 in a directional manner, while the brush on the cleaning plate 604 cleans the breeding plate 505 simultaneously.

[0020] In summary, by alternating breeding and cleaning in the two bottom compartments, combined with directional driving and adjustable breeding boards adapted to frog growth, and simultaneously achieving cleaning liquid spraying and brush cleaning, waste is guided along the slope for centralized discharge, effectively improving the hygiene of the breeding area, ensuring a stable breeding environment, increasing breeding efficiency, and reducing management costs.

[0021] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. A factory-scale frog farming and maintenance equipment, characterized in that, include: Base; At least two sets of aquaculture silo components, wherein the aquaculture silo components are connected to the base; A cross-shaped partition assembly, which is internally connected to the aquaculture silo assembly; A combined cleaning assembly, which is internally connected to the aquaculture silo assembly, is used for combined cleaning of the cross-partition assembly; The aquaculture silo assembly includes: A breeding chamber assembly, wherein the breeding chamber assembly is connected to a base; A dynamic top-fill component, which is internally connected to the breeding silo component, is used for zoned breeding management.

2. The factory-scale frog farming and maintenance equipment according to claim 1, characterized in that, The aquaculture tank components include: A lifting component, which is connected to the base; The bottom compartment is connected to the side of the lifting component away from the base; A waste bin, wherein the waste bin is located inside the bottom side of the bottom bin; At least two fixed bearings are connected to the interior of the bottom compartment; An internal conveying channel is connected to the interior of the bottom hopper and is located above the waste hopper.

3. The factory-scale frog farming and maintenance equipment according to claim 2, characterized in that, The aquaculture tank assembly also includes: A sewage control component, wherein the sewage control component is connected to the bottom of the sewage bin; A sludge collection cylinder is connected to the base and is located on the bottom side of the two-sided sludge discharge control components.

4. The factory-scale frog farming and maintenance equipment according to claim 3, characterized in that, The dynamic top-position component includes: Top storage, which is connected to the top side of the bottom storage; A flow control component, which is connected to the outside of the top compartment; An external conveying channel is installed at an angle on the outside of the top compartment.

5. The factory-scale frog farming and maintenance equipment according to claim 4, characterized in that, The cross-shaped partition assembly includes: The driving component is connected to the fixed shaft seats on both sides; A connecting shaft, which is connected to a driving component; Several aquaculture plates are connected to a connecting shaft.

6. The factory-scale frog farming and maintenance equipment according to claim 5, characterized in that, The cross-shaped partition assembly also includes: The first sliding control component is disposed inside the limiting groove; A driving plate, which is connected to a first sliding control element.

7. The factory-scale frog farming and maintenance equipment according to claim 2, characterized in that, The combined cleaning components include: At least two second sliding control elements, which are slidably connected to the inner wall of the bottom compartment; A limiting slide rail frame, wherein the limiting slide rail frame is connected to the second sliding control components on both sides; The third sliding control component is slidably connected to the limiting slide rail frame; A cleaning plate, which is connected to a third sliding control element; A connecting compartment, which is connected to a third sliding control element; A spraying component, which is connected to a connecting chamber; A water storage tank, which is connected to a third sliding control component and communicates with a connecting compartment.

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