Anti-storm marine ranch breeding equipment

Abstract

The invention discloses anti-storm marine ranch breeding equipment which comprises a suspension frame, fan blades, a hollow suction barrel, a scattering component and an anti-flow component, the hollow suction barrel arranged at the bottom slowly sinks to sediment on the seabed, and after the bottom of the hollow suction barrel is partially embedded into sandy soil, the interior of the hollow suction barrel can form a sealed state; the suction machine sucks water in the hollow suction barrel completely, negative pressure is generated in the hollow suction barrel at the moment, the hollow suction barrel can be pressed in soft sand at the bottom through strong suction force due to the difference between the internal pressure and the external pressure, and therefore the device can be preliminarily reinforced; meanwhile, anti-flow components arranged on anti-flow plates can further reinforce the breeding equipment, fan blades rotate to drive a wind shaft to rotate when encountering strong wind, the wind shaft rotates to drive a feed scattering plate to rotate through a feed scattering component, feed is annularly thrown into the breeding box under the action of centrifugal force, the feeding efficiency is improved, and meanwhile the feeding efficiency is improved. And manpower can also be saved.

Description

Technical Field

[0001] The present invention relates to a breeding device, in particular to an anti-wave ocean ranch breeding device. Background Art

[0002] "Ocean ranch" refers to a specific sea area, based on the characteristics of the regional marine ecosystem, through biological habitat conservation and optimization technologies, organically combining various fishery production factors such as proliferation and breeding to form an ecological coupling system of environment and industry. Appropriate breeding is of great significance for realizing both the economic value and ecological value of the ocean ranch. The construction of the ocean ranch is in the open sea area, and the impact of waves has a great influence on the stability of the breeding equipment in the ranch.

[0003] However, in the deep-water ocean ranch, relying solely on the side water baffle is difficult to effectively resist the wave impact of the big waves on the ocean ranch, resulting in instability inside the breeding area. Moreover, during the breeding process of the ocean ranch, it is inevitably vulnerable to the influence of wind and waves, which is not convenient for personnel to feed under the condition of strong wind and waves and has a certain degree of danger. Therefore, it is necessary to design an anti-wave ocean ranch breeding device to solve this problem. Summary of the Invention

[0004] The purpose of the present invention is to provide an anti-wave ocean ranch breeding device to solve the problems raised in the above background art.

[0005] To achieve the above purpose, the present invention provides the following technical solutions:

[0006] An anti-wave and anti-wind ocean ranch aquaculture device, including a suspension frame, a steel rod is installed on the suspension frame, an air guide cylinder is installed at one end of the steel rod away from the suspension frame, a number of air inlets are arranged in an annular array on the air guide cylinder, a valve is installed on each air inlet, the top of the air guide cylinder is connected with an air outlet pipe, the air outlet pipe is communicated with the air guide cylinder, and a wind blade is arranged at one end of the air outlet pipe away from the air guide cylinder. An air shaft is arranged in the air guide cylinder, the wind blade is installed on the air shaft, one end of the air shaft away from the wind blade penetrates through the bottom wall of the air guide cylinder, and the air shaft is rotatably connected with the bottom wall of the air guide cylinder. A fixed rod is installed on the suspension frame, a breeding box is installed at one end of the fixed rod away from the suspension frame, a wind-proof rod is installed on the suspension frame, a blanking conduit is installed at one end of the wind-proof rod away from the suspension frame, a feeding pipe is installed on one side of the blanking conduit, a storage box is connected at one end of the feeding pipe away from the blanking conduit, a blanking valve is installed on the feeding pipe, a material spreading member is installed on the air shaft, a material spreading plate is connected at one end of the material spreading member away from the air shaft, the material spreading plate is arranged at the bottom of the blanking conduit and on the upper side of the breeding box. A suction machine is installed on the suspension frame, a number of suction pipes are installed on the suction machine, a hollow suction bucket is installed at one end of the suction pipe away from the suction machine, a flow resistance plate is arranged between two adjacent hollow suction buckets, the flow resistance plate is connected with the hollow suction bucket, a flow resistance member is installed on the flow resistance plate, and a reinforcement member is installed on the hollow suction bucket. One end of the reinforcement member away from the hollow suction bucket is connected with the air outlet pipe.

[0007] As a further scheme of the present invention: the flow resistance member includes a flow resistance frame installed on the flow resistance plate, flow resistance grooves are symmetrically opened on the flow resistance plate, flow resistance blocks are slidably installed in the flow resistance grooves, vertical plates are symmetrically installed on the flow resistance plate, a rotating shaft is installed on the vertical plate, a reinforcement plate is fixedly installed on the rotating shaft, a flow resistance rod is installed at one end of the reinforcement plate, an anchor block is installed at one end of the flow resistance rod away from the reinforcement plate, a power member is installed on the flow resistance frame, a driving block is installed at one end of the power member away from the flow resistance frame, a driving rod is hinged on the driving block, one end of the driving rod away from the driving block is hinged with the flow resistance block, and a push rod is hinged on the flow resistance block. One end of the push rod away from the flow resistance block is hinged with the reinforcement plate.

[0008] As a further scheme of the present invention: the material spreading member includes a pneumatic rod rotatably connected with the suspension frame, one end of the pneumatic rod penetrates through the suspension frame and is connected with a material spreading rod, one end of the material spreading rod away from the pneumatic rod penetrates through the blanking conduit and is connected with the material spreading plate, a through hole for the material spreading rod to pass through is opened on the blanking conduit, push plates are arranged in an annular array on the material spreading plate, and a conveying mechanism is installed on the air shaft. One end of the conveying mechanism away from the air shaft is connected with the pneumatic rod.

[0009] As a further scheme of the present invention: the reinforcement member includes a negative pressure pipe, an air valve is installed on the negative pressure pipe, one end of the negative pressure pipe is connected with the hollow suction bucket, and the other end of the negative pressure pipe is connected with the air outlet pipe.

[0010] As a further scheme of the present invention: an air suction hood is installed on each air inlet.

[0011] As a further solution of the present invention: the power member is an electric push rod.

[0012] As a further solution of the present invention: the breeding box is of a cylindrical structure.

[0013] Compared with the prior art, the beneficial effects of the present invention are as follows: The breeding device is installed in the ocean, and the device needs to be reinforced so that the device has a certain ability to resist wind and waves. First, the device is hoisted to the required position, and the hollow suction bucket arranged at the bottom slowly sinks onto the sediment at the bottom of the sea. When a part of the bottom of the hollow suction bucket is embedded in the sand, a sealed state will be formed inside the hollow suction bucket. At this time, start the suction machine to suck dry the water in the hollow suction bucket. At this time, a negative pressure will be generated in the hollow suction bucket. Due to the internal and external pressure difference, a strong suction force will press the hollow suction bucket into the soft sand at the bottom. During the process that the hollow suction bucket slowly sinks into the sand, a sand flow will be formed at the edge of the hollow suction bucket. Therefore, as the depth of the hollow suction bucket sinking into the sand increases, the pressure generated by the sand on the hollow suction bucket becomes greater, making the hollow suction bucket more stable, and thus a preliminary reinforcement of the device can be carried out. When further reinforcing the device, the arranged power member drives the connected driving block to slide downward. During the downward sliding of the driving block, the anti-flow block is driven to slide through the driving rod. When the anti-flow block slides, the reinforcing plate at one end is pushed to rotate through the push rod. During the rotation of the reinforcing plate, the anti-flow rod is driven to rotate around the rotating shaft. During this process, the anti-flow rod drives the anchor block at one end to insert into the sand at the bottom, making the anchor block have better grip, so that the device can be further reinforced and the anti-wind and wave effect of the device can be improved. When it is not convenient for personnel to feed the feed in windy weather, at this time, only the valve on the side against the wind direction in the air guiding cylinder can be opened. At this time, the wind will enter the air guiding cylinder through the arranged air suction cover and then flow out through the air outlet pipe arranged at the top. During this process, under the action of the wind force, the wind blades can be driven to rotate rapidly. The rotation of the wind blades drives the wind shaft to rotate. The rotation of the wind shaft drives the pneumatic rod connected thereto to rotate through the arranged conveying mechanism. The rotation of the pneumatic rod drives the feeding rod at the bottom to rotate. During the rotation of the feeding rod, the feeding plate at the bottom is driven to rotate. Therefore, when it is inconvenient for personnel to feed in large wind and wave weather, open the installed feeding valve, so that the feed in the storage box falls along the feeding pipe onto the feeding plate at the bottom of the feeding conduit. During the rotation of the feeding plate, under the action of centrifugal force, the feed falling on the surface can be thrown in a circular shape into the breeding box, so that the feeding range of the feed can be more uniform, improving the feeding efficiency and saving manpower at the same time. When the wind force on the sea surface reaches a certain intensity, at this time, the air valve installed on the negative pressure pipe can be opened. Since the gas entering the air guiding cylinder continuously discharges from the air outlet pipe, the faster the air flow rate is when the wind force is greater, the smaller the pressure at the connection between the air outlet pipe and the negative pressure pipe will be at this time, making the negative pressure inside the hollow suction bucket at one end of the negative pressure pipe greater. Due to the internal and external pressure difference, the hollow suction bucket can be firmly pressed into the sand at the bottom. The greater the wind force, the greater the generated pressure difference, so that the depth of the hollow suction bucket embedded in the sand at the bottom is deeper, thus improving the stability of the device and enhancing the anti-wind and wave effect of the device. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1It is a schematic structural diagram of an anti-wave ocean ranch aquaculture device.

[0015] Figure 2 It is a schematic structural diagram of another angle of an anti-wave ocean ranch aquaculture device.

[0016] Figure 3 It is a schematic structural diagram of the anti-current plate in an anti-wave ocean ranch aquaculture device.

[0017] Figure 4 It is a schematic structural diagram of the suspension frame in an anti-wave ocean ranch aquaculture device.

[0018] Figure 5 It is a schematic structural diagram of the aquaculture box in an anti-wave ocean ranch aquaculture device.

[0019] Figure 6 It is a schematic structural diagram of the conveying mechanism in an anti-wave ocean ranch aquaculture device.

[0020] Figure 7 It is a schematic structural diagram of the feeding plate in an anti-wave ocean ranch aquaculture device.

[0021] In the figure: 1. Suspension frame; 2. Air guide cylinder; 3. Steel rod; 4. Air outlet pipe; 5. Wind blade; 6. Negative pressure pipe; 7. Hollow suction barrel; 8. Suction flow pipe; 9. Suction machine; 10. Storage bin; 11. Wind prevention rod; 12. Fixed rod; 13. Aquaculture box; 14. Wind shaft; 15. Conveying mechanism; 17. Pneumatic rod; 18. Feeding rod; 19. Feeding plate; 20. Pushing plate; 21. Anti-current rod; 22. Anchor block; 23. Anti-current plate; 24. Vertical plate; 25. Anti-current frame; 26. Power component; 27. Push rod; 28. Anti-current block; 29. Driving rod; 30. Blanking conduit; 31. Reinforcing plate; 32. Through hole; 33. Feeding pipe; 34. Suction hood. Detailed implementation manners

[0022] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0023] Please refer to Figures 1 to 7, as an embodiment of the present invention, an anti-wave ocean ranching aquaculture device includes a suspension frame 1. A steel rod 3 is installed on the suspension frame 1. One end of the steel rod 3 away from the suspension frame 1 is installed with an air induction cylinder 2. A number of air induction openings are arranged in an annular array on the air induction cylinder 2. A valve is installed on each air induction opening. A suction hood 34 is installed on each air induction opening. The top of the air induction cylinder 2 is connected with an air outlet pipe 4. The air outlet pipe 4 is communicated with the air induction cylinder 2. And a wind blade 5 is arranged at one end of the air outlet pipe 4 away from the air induction cylinder 2. A wind shaft 14 is arranged in the air induction cylinder 2. The wind blade 5 is installed on the wind shaft 14. One end of the wind shaft 14 away from the wind blade 5 penetrates through the bottom wall of the air induction cylinder 2. And the wind shaft 14 is rotatably connected with the bottom wall of the air induction cylinder 2. A fixed rod 12 is installed on the suspension frame 1. One end of the fixed rod 12 away from the suspension frame 1 is installed with an aquaculture box 13. A windproof rod 11 is installed on the suspension frame 1. One end of the windproof rod 11 away from the suspension frame 1 is installed with a blanking conduit 30. A material guiding pipe 33 is installed on one side of the blanking conduit 30. One end of the material guiding pipe 33 away from the blanking conduit 30 is connected with a storage box 10. A blanking valve is installed on the material guiding pipe 33. A material spreading member is installed on the wind shaft 14. One end of the material spreading member away from the wind shaft 14 is connected with a material spreading plate 19. The material spreading plate 19 is arranged at the bottom of the blanking conduit 30. And the material spreading plate 19 is arranged on the upper side of the aquaculture box 13. A suction machine 9 is installed on the suspension frame 1. A number of suction pipes 8 are installed on the suction machine 9. One end of the suction pipe 8 away from the suction machine 9 is installed with a hollow suction barrel 7. An anti-flow plate 23 is arranged between two adjacent hollow suction barrels 7. The anti-flow plate 23 is connected with the hollow suction barrel 7. An anti-flow member is installed on the anti-flow plate 23. And a reinforcement member is installed on the hollow suction barrel 7. One end of the reinforcement member away from the hollow suction barrel 7 is connected with the air outlet pipe 4.

[0024] In this embodiment, the aquaculture equipment is installed in the ocean, and the device needs to be strengthened so that the device has a certain ability to resist wind and waves. First, the device is hoisted to the required position, and the hollow suction bucket 7 provided at the bottom slowly sinks to the sediment on the seabed. When a part of the bottom of the hollow suction bucket 7 is embedded in the sand, a sealed state will be formed inside the hollow suction bucket 7. At this time, the suction machine 9 is started to suck the water in the hollow suction bucket 7 dry. At this time, a negative pressure will be generated in the hollow suction bucket 7. Due to the internal and external pressure difference, a strong suction force will press the hollow suction bucket 7 into the soft sand at the bottom. During the process of the hollow suction bucket 7 slowly sinking into the sand, a sand flow will be formed at the edge of the hollow suction bucket 7. As the depth of the hollow suction bucket 7 sinking into the sand increases, the pressure generated by the sand on the hollow suction bucket 7 will be greater, making the hollow suction bucket 7 more stable, so that a preliminary strengthening of the device can be carried out. At the same time, the anti-flow components provided on the anti-flow plate 23 can further strengthen the aquaculture equipment, thereby enhancing the wind and wave resistance of the aquaculture equipment. When it is not convenient for personnel to feed the feed in windy weather, only the valve on the leeward side of the air guide cylinder 2 can be opened at this time. At this time, the wind will enter the air guide cylinder 2 through the suction hood 34 provided and flow out through the air outlet pipe 4 provided at the top. During this process, the wind blades 5 can be driven to rotate rapidly under the action of the wind. The rotation of the wind blades 5 drives the rotation of the wind shaft 14. The rotation of the wind shaft 14 drives the rotation of the feeding plate 19 through the feeding component. At this time, the feeding valve is opened, and the feed in the storage box 10 falls along the feeding pipe 33 onto the feeding plate 19 at the bottom of the blanking conduit 30. During the rotation of the feeding plate 19, the feed on the surface can be thrown in a circular shape onto the aquaculture tank 13 under the action of centrifugal force, so that the feeding range of the feed can be more uniform, improving the feeding efficiency while saving manpower and enhancing the practicability of the device. At the same time, when the wind reaches a certain level, the device can be further protected against wind by the strengthening components provided on the hollow suction bucket 7, enhancing the stability of the device and preventing the aquaculture equipment from being damaged by wind and waves.

[0025] Further, a plurality of air inlets are annularly arranged on the air guide cylinder 2, so that the required air inlets can be selected according to the wind direction, thereby enhancing the wind and wave resistance stability and better utilizing the wind energy for auxiliary aquaculture, and enhancing the practicability of the device.

[0026] Further, the aquaculture tank 13 is of a cylindrical structure, so that the aquaculture tank 13 can maintain good stability in wind and waves.

[0027] Please refer to Figures 1 to 3, as an embodiment of the present invention, the anti-flow member includes an anti-flow frame 25, the anti-flow frame 25 is installed on the anti-flow plate 23, anti-flow grooves are symmetrically formed on the anti-flow plate 23, an anti-flow block 28 is slidably installed in the anti-flow grooves, vertical plates 24 are symmetrically installed on the anti-flow plate 23, a rotating shaft is installed on the vertical plates 24, a reinforcing plate 31 is fixedly installed on the rotating shaft, an anti-flow rod 21 is installed at one end of the reinforcing plate 31, an anchor block 22 is installed at the end of the anti-flow rod 21 away from the reinforcing plate 31, a power member 26 is installed on the anti-flow frame 25, a driving block is installed at the end of the power member 26 away from the anti-flow frame 25, a driving rod 29 is hinged to the driving block, the end of the driving rod 29 away from the driving block is hinged to the anti-flow block 28, and a push rod 27 is hinged to the anti-flow block 28, and the end of the push rod 27 away from the anti-flow block 28 is hinged to the reinforcing plate 31.

[0028] In this embodiment, when further strengthening the device, the set power member 26 drives the connected driving block to slide downward. During the downward sliding of the driving block, the anti-flow block 28 is driven to slide through the driving rod 29. The sliding of the anti-flow block 28 pushes the reinforcing plate 31 at one end to rotate through the push rod 27. During the rotation of the reinforcing plate 31, the anti-flow rod 21 is driven to rotate around the rotating shaft. During this process, the anti-flow rod 21 drives the anchor block 22 at one end to insert into the bottom sand, so that the anchor block 22 has better grip, thereby further strengthening the device, improving the anti-wave effect of the device, and playing a good protective role for the device.

[0029] Furthermore, the power member 26 can be an electric push rod 27, an electric telescopic rod or a cylinder, etc. Preferably, an electric push rod 27 is adopted, and no specific description is made here.

[0030] Please refer to Figures 1 to 7 , as an embodiment of the present invention, the material spreading member includes a pneumatic rod 17, the pneumatic rod 17 is rotatably connected to the suspension frame 1, and one end of the pneumatic rod 17 penetrates through the suspension frame 1 and is connected to a material spreading rod 18. The end of the material spreading rod 18 away from the pneumatic rod 17 penetrates through the blanking conduit 30 and is connected to a material spreading plate 19. A through hole 32 for the material spreading rod 18 to pass through is formed on the blanking conduit 30. Pushing plates 20 are annularly arranged on the material spreading plate 19. A conveying mechanism 15 is installed on the wind shaft 14, and the end of the conveying mechanism 15 away from the wind shaft 14 is connected to the pneumatic rod 17.

[0031] In this embodiment, when the wind blade 5 rotates under the action of wind force, it will drive the wind shaft 14 to rotate. The rotation of the wind shaft 14 drives the connected pneumatic rod 17 to rotate through the arranged conveying mechanism 15. The rotation of the pneumatic rod 17 drives the bottom feeding rod 18 to rotate, and the rotation of the feeding rod 18 drives the bottom feeding plate 19 to rotate during the rotation process. Thus, when it is inconvenient for personnel to feed in strong wind and wave weather, the installed feeding valve is opened, so that the feed in the storage box 10 falls along the guiding pipe 33 onto the feeding plate 19 at the bottom of the blanking conduit 30. During the rotation process of the feeding plate 19, the feed on the surface can be thrown in a circular shape into the breeding box 13 under the action of centrifugal force, so that the feeding range of the feed can be made more uniform, the feeding efficiency is improved, the manpower is saved, and the practicability of the device is enhanced.

[0032] Further, the conveying mechanism 15 can be a gear set or a pulley set, etc., and no specific description is made here.

[0033] Please refer to Figure 1 , as an embodiment of the present invention, the reinforcement member includes a negative pressure pipe 6, an air valve is installed on the negative pressure pipe 6, one end of the negative pressure pipe 6 is connected to the hollow suction barrel 7, and the other end of the negative pressure pipe 6 is connected to the air outlet pipe 4.

[0034] In this embodiment, when the wind force on the sea surface reaches a certain intensity, the air valve installed on the negative pressure pipe 6 can be opened at this time. Since the gas entering the air guiding cylinder 2 is continuously discharged from the air outlet pipe 4, the faster the air flow velocity is when the wind force is greater, the smaller the pressure at the connection between the air outlet pipe 4 and the negative pressure pipe 6 becomes at this time, so that the negative pressure inside the hollow suction barrel 7 at one end of the negative pressure pipe 6 becomes greater. Due to the internal and external pressure difference, the hollow suction barrel 7 can be firmly pressed into the bottom sand. The greater the wind force, the greater the generated pressure difference, so that the hollow suction barrel 7 is embedded deeper into the bottom sand, thereby improving the stability of the device and enhancing the anti-wind and wave effect of the device.

[0035] The working principle of the present invention is as follows: The breeding device is installed in the ocean, and it is necessary to reinforce the device so that the device has a certain ability to resist wind and waves. First, the device is lifted and transported to the required position, and the hollow suction bucket 7 provided at the bottom slowly sinks to the sediment on the seabed. When a part of the bottom of the hollow suction bucket 7 is embedded in the sand, a sealed state will be formed inside the hollow suction bucket 7. At this time, start the suction machine 9 to suck dry the water in the hollow suction bucket 7. At this time, a negative pressure will be generated in the hollow suction bucket 7. Due to the internal and external pressure difference, a strong suction force will press the hollow suction bucket 7 into the soft sand at the bottom. During the process of the hollow suction bucket 7 slowly sinking into the sand, a sand flow will be formed at the edge of the hollow suction bucket 7. Thus, as the depth of the hollow suction bucket 7 sinking into the sand increases, the pressure generated by the sand on the hollow suction bucket 7 becomes greater, making the hollow suction bucket 7 more stable, thereby preliminarily reinforcing the device. When further reinforcing the device, the power member 26 drives the connected driving block to slide downward. During the downward sliding of the driving block, the anti-flow block 28 is driven to slide through the driving rod 29. The sliding of the anti-flow block 28 pushes the reinforcing plate 31 at one end to rotate through the push rod 27. During the rotation of the reinforcing plate 31, the anti-flow rod 21 is driven to rotate around the rotating shaft. During this process, the anti-flow rod 21 drives the anchor block 22 at one end to insert into the sand at the bottom, making the anchor block 22 have better grip, thereby further reinforcing the device and improving the anti-wind and wave effect of the device. When it is not convenient for personnel to feed the feed in windy weather, at this time, only the valve on the leeward side of the air guide cylinder 2 can be opened. At this time, the wind will enter the air guide cylinder 2 through the suction hood 34 provided and then flow out through the air outlet pipe 4 provided at the top. During this process, the wind blades 5 can be driven to rotate rapidly under the action of the wind. The rotation of the wind blades 5 drives the wind shaft 14 to rotate. The rotation of the wind shaft 14 drives the pneumatic rod 17 connected thereto to rotate through the conveying mechanism 15 provided. The rotation of the pneumatic rod 17 drives the feeding rod 18 at the bottom to rotate. During the rotation of the feeding rod 18, the feeding plate 19 at the bottom is driven to rotate. Thus, when it is inconvenient for personnel to feed in strong wind and wave weather, open the installed feeding valve, so that the feed in the storage box 10 falls along the feeding pipe 33 onto the feeding plate 19 at the bottom of the feeding guide pipe 30. During the rotation of the feeding plate 19, the feed on the surface can be thrown in a circular shape onto the breeding box 13 under the action of centrifugal force, so that the feeding range of the feed is more uniform, improving the feeding efficiency and saving manpower at the same time. When the wind force on the sea surface reaches a certain intensity, at this time, the air valve installed on the negative pressure pipe 6 can be opened. Since the gas entering the air guide cylinder 2 continuously discharges from the air outlet pipe 4, the greater the wind force, the faster the flow rate of the air flow. At this time, the pressure at the connection between the air outlet pipe 4 and the negative pressure pipe 6 will become smaller, making the negative pressure inside the hollow suction bucket 7 at one end of the negative pressure pipe 6 greater. Due to the internal and external pressure difference, the hollow suction bucket 7 can be firmly pressed into the sand at the bottom. The greater the wind force, the greater the pressure difference generated, so that the depth of the hollow suction bucket 7 embedded in the sand at the bottom is deeper, thereby improving the stability of the device.The anti-wave effect of the device is enhanced.

[0036] For those skilled in the art, it is obvious that the present invention is not limited to the details of the above-described exemplary embodiments, and without departing from the spirit or basic characteristics of the present invention, the present invention can be implemented in other specific forms. Therefore, from any point of view, the embodiments should be regarded as exemplary and non-limiting. The scope of the present invention is defined by the appended claims rather than the above description. Therefore, all changes falling within the meaning and scope of the equivalent elements of the claims are intended to be embraced within the present invention. Any reference signs in the claims should not be construed as limiting the claims involved.

[0037] In addition, it should be understood that although this specification is described according to embodiments, not every embodiment only contains an independent technical solution. This narrative manner of the specification is only for clarity. Those skilled in the art should regard 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 wind and wave resistant marine ranch breeding equipment, comprising a suspension frame, characterized in that: A steel rod is installed on the suspension frame, and an induced draft cylinder is installed at one end of the steel rod away from the suspension frame. A plurality of induced draft ports are arranged in a circular array on the induced draft cylinder, and a valve is installed on each induced draft port. An air outlet pipe is connected to the top of the induced draft cylinder, and the air outlet pipe is connected to the induced draft cylinder, and a fan blade is arranged at one end of the air outlet pipe away from the induced draft cylinder. A wind shaft is arranged in the induced draft cylinder, and the fan blade is installed on the wind shaft. One end of the wind shaft away from the fan blade passes through the bottom wall of the induced draft cylinder, and the wind shaft is rotatably connected to the bottom wall of the induced draft cylinder. A fixing rod is installed on the suspension frame, and a breeding box is installed at one end of the fixing rod away from the suspension frame. A windproof rod is installed on the suspension frame, and a blanking conduit is installed at one end of the windproof rod away from the suspension frame. A feed guide pipe is installed on the side, and the end of the feed guide pipe away from the material discharge duct is connected to a material storage box, a discharge valve is installed on the feed guide pipe, a spreading component is installed on the wind shaft, and the end of the spreading component away from the wind shaft is connected to a spreading plate, the spreading plate is arranged at the bottom of the material discharge duct, and the spreading plate is arranged on the upper side of the breeding box, a suction machine is installed on the suspension frame, a plurality of suction pipes are installed on the suction machine, a hollow suction barrel is installed at the end of the suction pipe away from the suction machine, an anti-flow plate is arranged between two adjacent hollow suction barrels, the anti-flow plate is connected to the hollow suction barrel, an anti-flow component is installed on the anti-flow plate, and a reinforcement component is installed on the hollow suction barrel, and the reinforcement component is connected to the air outlet pipe at one end away from the hollow suction barrel.

2. The wind and wave resistant marine ranch breeding equipment according to claim 1 is characterized in that: The anti-flow component includes an anti-flow frame, which is installed on the anti-flow plate, and the anti-flow grooves are symmetrically opened on the anti-flow plate, and an anti-flow block is slidably installed in the anti-flow grooves, and vertical plates are symmetrically installed on the anti-flow plate, and the vertical plates are installed with a rotating shaft, and a reinforcement plate is fixedly installed on the rotating shaft, an anti-flow rod is installed at one end of the reinforcement plate, and an anchor block is installed at the end of the anti-flow rod away from the reinforcement plate, a power part is installed on the anti-flow frame, and a driving block is installed at the end of the power part away from the anti-flow frame, a driving rod is hinged on the driving block, and the driving rod is hinged to the anti-flow block at one end away from the driving block, and a push rod is hinged on the anti-flow block, and the push rod is hinged to the reinforcement plate at one end away from the anti-flow block.

3. The wind and wave resistant marine ranch breeding equipment according to claim 1 is characterized in that: The material spreading component includes a pneumatic rod, which is rotatably connected to the suspension frame, and one end of the pneumatic rod passes through the suspension frame and is connected to the material spreading rod, the end of the material spreading rod away from the pneumatic rod passes through a material dropping duct and is connected to a material spreading plate, the material dropping duct is provided with a through hole for the material spreading rod to pass through, the material spreading plate is provided with a push plate in a circular array, a conveying mechanism is installed on the wind shaft, and the conveying mechanism is connected to the pneumatic rod at one end away from the wind shaft.

4. The wind and wave resistant marine ranch breeding equipment according to claim 2 is characterized in that: The reinforcing component comprises a negative pressure pipe, an air valve is installed on the negative pressure pipe, one end of the negative pressure pipe is connected to the hollow suction barrel, and the other end of the negative pressure pipe is connected to the air outlet pipe.

5. The wind and wave resistant marine ranch breeding equipment according to claim 1 is characterized in that: An air suction hood is installed on each of the air inlets.

6. The wind and wave resistant marine ranch breeding equipment according to claim 2 is characterized in that: The power piece is an electric push rod.

7. The wind and wave resistant marine ranch breeding equipment according to claim 1 is characterized in that: The breeding box is a cylindrical structure.

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