Floating type whole-sea-area power cultivation platform

Abstract

The invention relates to the technical field of floating breeding platforms, in particular to a floating type whole-sea-area power breeding platform which comprises a floating breeding platform body, four feeding assemblies are installed on the floating breeding platform body, and each feeding assembly comprises a discharging barrel. And the four groups of discharging barrels are rotatably mounted in four groups of fish tanks of the floating breeding platform through fixing frames. The air in the third conveying pipe is sprayed to the periphery of the exterior of the floating breeding platform through a plurality of groups of nozzles at a certain pressure and speed; according to the mode that gas in each group of piston pipes is conveyed into each group of third conveying pipes through each group of first conveying pipes at intervals and then sprayed out through multiple groups of nozzles, a gas barrier can be formed around the floating breeding platform, marine litter brought by ocean currents is effectively prevented from getting close to the floating breeding platform, and the service life of the floating breeding platform is prolonged. Therefore, normal growth of fish fries in the breeding platform and stability of the breeding environment are guaranteed.

Description

Technical Field

[0001] This invention relates to the field of floating aquaculture platform technology, specifically a floating, all-sea dynamic aquaculture platform. Background Technology

[0002] The floating full-ocean dynamic aquaculture platform is a marine equipment that integrates aquaculture, navigation, energy supply and intelligent control. It features full-ocean-area aquaculture, autonomous navigation and typhoon avoidance, green energy supply and intelligent system control, and can realize the efficient use of marine space resources and the industrialization and large-scale transformation of fishery aquaculture. Currently, when ocean currents occur in the sea area where floating aquaculture platforms are located, these currents carry marine debris into the aquaculture area. This marine debris hinders the normal exchange and circulation of the aquaculture water, leading to water quality deterioration, imbalance of dissolved oxygen and nutrients in the water, and destruction of a stable environment suitable for fish fry growth. Summary of the Invention

[0003] The purpose of this invention is to provide a floating, all-ocean-area powered aquaculture platform. Gas inside the third transmission pipe is injected into the outer perimeter of the floating aquaculture platform at a certain pressure and speed through multiple sets of nozzles. This method of intermittently transmitting gas from the piston pipe to the third transmission pipe through each first transmission pipe and then ejecting it through multiple sets of nozzles can form a gas barrier around the floating aquaculture platform, effectively preventing marine debris brought by ocean currents from approaching the platform, thereby ensuring the normal growth of fish fry and the stability of the aquaculture environment.

[0004] To achieve the above objectives, the present invention provides the following technical solution: a floating full-ocean-area dynamic aquaculture platform, comprising a floating aquaculture platform, wherein four sets of feeding components are installed on the floating aquaculture platform, each of the four sets of feeding components includes a feeding bucket, the four sets of feeding buckets are rotatably installed inside four sets of fish tanks on the floating aquaculture platform via a fixed frame, one end of the feeding bucket is rotatably connected to a turntable, one end of the feeding bucket is fixedly installed with a second rotating rod via a connecting rod, one end of the second rotating rod is connected to a first gearbox, the bottom of the first gearbox is fixedly connected to the inside of the turntable, a crushing rod is fixedly installed on the second rotating rod, and the feeding bucket is connected to the first rotating rod via a synchronous belt, one end of the first rotating rod is rotatably connected to the outer surface of the floating aquaculture platform; The floating aquaculture platform is equipped with two sets of auxiliary components. Each set of auxiliary components includes a piston tube, and a reciprocating screw is rotatably installed inside each set of piston tubes. One end of each set of reciprocating screws is connected to a second gearbox. The two sets of second gearboxes are respectively installed on two sets of first rotating rods. A threaded disc is slidably connected to the reciprocating screw. A first transmission pipe is connected inside the piston tube. A pressure valve is provided on the first transmission pipe. A third transmission pipe is fixedly connected to one end of the first transmission pipe. Multiple sets of nozzles are provided on the third transmission pipe. Two sets of second transmission pipes are fixedly connected to the nozzles. One end of each set of second transmission pipes is connected to the inside of each set of feeding hoppers.

[0005] Preferably, four sets of motors are fixedly installed on the floating aquaculture platform, and the output ends of the four sets of motors are all fixedly connected to the other end of the first rotating rod. A one-way clutch is provided at the connection between the first rotating rod and the synchronous belt.

[0006] Preferably, each set of the first gearbox is provided with a first bevel tooth, a second bevel tooth, and a third bevel tooth. The first bevel tooth meshes with the second bevel tooth and the third bevel tooth. One end of the second rotating rod of each set passes through the interior of each set of the first gearbox, and one end of the second rotating rod is fixedly connected to the outside of the first bevel tooth. The outside of the third bevel tooth passes through the interior of the first gearbox, and the outside of the first gearbox is fixedly connected to the interior of the turntable.

[0007] Preferably, one end of each feeding hopper penetrates the outside of the turntable, and one end of the feeding hopper communicates with the inside of the turntable. One end of the feeding hopper is provided with a first groove, and the turntable is rotatably connected to the inside of the first groove of the feeding hopper.

[0008] Preferably, both sets of the second gearboxes are provided with a fourth bevel gear and a fifth bevel gear that mesh with each other, wherein one end of each set of the first rotating rod passes through the interior of the second gearbox and the interior of the fifth bevel gear in sequence, and the fifth bevel gear is fixedly installed on the first rotating rod.

[0009] Preferably, one end of each of the two sets of reciprocating lead screws passes through the interior of the piston tube and the interior of the second gearbox in sequence, and one end of the reciprocating lead screw is fixedly connected to the exterior of the fourth bevel gear, while the fourth bevel gear is rotatably connected to the interior of the second gearbox.

[0010] Preferably, both sets of reciprocating lead screws are connected to two sets of threaded discs via ball nut pairs, both sets of piston tubes have a second groove inside, and both sets of threaded discs have a protrusion that slides inside the second groove on the outside.

[0011] Preferably, the two sets of third transmission pipes are fixedly connected to the outside of the floating aquaculture platform through multiple sets of mounting seats, and the two sets of piston pipes are internally connected to an air inlet pipe, which is equipped with a one-way valve.

[0012] Compared with the prior art, the beneficial effects of the present invention are: In this invention, the gas inside the third transmission pipe is sprayed out to the outside of the floating aquaculture platform at a certain pressure and speed through multiple sets of nozzles. This method of intermittently transmitting the gas inside each set of piston pipes through each set of first transmission pipes to each set of third transmission pipes, and then spraying it out through multiple sets of nozzles, can form a gas barrier around the floating aquaculture platform, effectively preventing marine debris brought by ocean currents from approaching the floating aquaculture platform, thereby ensuring the normal growth of fish fry and the stability of the aquaculture environment within the platform.

[0013] In this invention, each set of second rotating rods drives each set of turntables to rotate, and each set of turntables evenly scatters the fish food inside into each set of fish tanks on the floating aquaculture platform, preventing the fish food from accumulating in a certain area of ​​each set of fish tanks on the floating aquaculture platform, which would cause some fish fry to be injured due to excessive competition for food, or some fish fry to have their growth hindered due to insufficient food.

[0014] In this invention, a portion of the gas inside the third transmission pipe is transmitted to the feeding hoppers of each pair of sets through two sets of second transmission pipes. The gas assists in the feeding of each set of feeding hoppers and turntables. After the gas enters the feeding hoppers and turntables, it can loosen the fish food inside, preventing the fish food from clogging the feeding channel due to dense accumulation, ensuring smooth feeding, and enabling the fish food to be continuously and stably fed into the fish tank, thus ensuring the stable feeding of the fish fry. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a cross-sectional view of the overall structure of the present invention; Figure 3 This is a schematic diagram showing the connection between the feeding component and the auxiliary component of the present invention; Figure 4 This is a cross-sectional view of the feeding component structure of the present invention; Figure 5 This is a second cross-sectional view of the feeding component structure of the present invention; Figure 6 Cross-sectional view of the auxiliary component structure of the present invention Figure 1 ; Figure 7 Cross-sectional view of the auxiliary component structure of the present invention Figure 2 .

[0016] In the diagram: 1. Floating aquaculture platform; 2. Feeding assembly; 201. Motor; 202. First rotating rod; 203. One-way clutch; 204. Synchronous belt; 205. Feeding hopper; 206. Second rotating rod; 207. First gearbox; 217. First bevel gear; 227. Second bevel gear; 237. Third bevel gear; 208. Turntable; 209. Crushing rod; 3. Auxiliary assembly; 301. Piston tube; 302. Reciprocating screw; 303. Threaded disc; 304. Second gearbox; 314. Fourth bevel gear; 324. Fifth bevel gear; 305. First transmission pipe; 306. Third transmission pipe; 307. Nozzle; 308. Second transmission pipe; 309. Air inlet pipe; 310. One-way valve; 311. Pressure valve. Detailed Implementation

[0017] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Therefore, the following detailed description of the embodiments of the present invention provided in the accompanying drawings is not intended to limit the scope of the claimed invention, but merely to illustrate selected embodiments of the invention. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without inventive effort are within the scope of protection of the present invention.

[0018] See Figures 1 to 7 As shown, the present invention provides a floating full-ocean-area dynamic aquaculture platform, including a floating aquaculture platform 1. Four sets of feeding components 2 are installed on the floating aquaculture platform 1. Each of the four sets of feeding components 2 includes a feeding bucket 205. The four sets of feeding buckets 205 are rotatably installed inside the four sets of fish tanks of the floating aquaculture platform 1 through a fixing frame. One end of the feeding bucket 205 is rotatably connected to a turntable 208. One end of the feeding bucket 205 is fixedly installed with a second rotating rod 206 through a connecting rod. One end of the second rotating rod 206 is connected to a first gearbox 207. The bottom of the first gearbox 207 is fixedly connected to the inside of the turntable 208. A crushing rod 209 is fixedly installed on the second rotating rod 206. The feeding bucket 205 is connected to a first rotating rod 202 through a synchronous belt 204. One end of the first rotating rod 202 is rotatably connected to the outer surface of the floating aquaculture platform 1. The floating aquaculture platform 1 adopts floating dynamic positioning technology. Through all-electric propulsion and power control system, it can switch between all-sea-area aquaculture and fixed mooring modes. It has autonomous navigation and typhoon avoidance function. Before the arrival of typhoons and other severe weather, it can autonomously navigate to a safe sea area to reduce aquaculture risks. When staff need to feed the fish fry in the four fish tanks of the floating aquaculture platform 1, they pour the fish food into the turntable 208 of each group through the feeding bucket 205. Then, they start the motor 201 of each group to rotate forward. Each motor 201 drives the first rotating rod 202 of each group to rotate. After adjustment by the one-way clutch 203 of each group, the first rotating rod 202 of each group drives the feeding bucket 205 of each group to rotate through the synchronous belt 204. Each feeding bucket 205 drives the second rotating rod 206 of each group to rotate through the connecting rod. Since the first bevel gear 217 meshes with the second bevel gear 227 and the third bevel gear 237, ... Each set of turntables 208 is rotatably connected to the first groove of each set of feeding buckets 205. Therefore, each set of second rotating rods 206 is driven by the first bevel gear 217, the second bevel gear 227, and the third bevel gear 237 inside the first gearbox 207, so that each set of second rotating rods 206 drives each set of turntables 208 to rotate. Each set of turntables 208 evenly throws the fish food inside into each set of fish tanks of the floating aquaculture platform 1, preventing the fish food from accumulating in a certain area of ​​each set of fish tanks of the floating aquaculture platform 1, which would cause some fish fry to be injured due to excessive competition for food, or some fish fry to be hindered in growth due to insufficient food. Each feeding hopper 205 drives the second rotating rod 206 of each group to rotate via a connecting rod. At the same time, the second rotating rod 206 drives the crushing rod 209 to rotate. Since the first bevel gear 217 meshes with the second bevel gear 227 and the third bevel gear 237, the second rotating rod 206 of each group is driven by the first bevel gear 217, the second bevel gear 227 and the third bevel gear 237 inside the first gearbox 207. Therefore, the rotation direction of the turntable 208 driven by the second rotating rod 206 is opposite to the direction of the crushing rod 209 driven by the second rotating rod 206. The crushing rod 209 driven by the second rotating rod 206 rotates inside the turntable 208, breaking up the fish food inside the turntable 208. This prevents some large pieces of fish food from falling quickly to the bottom of the protective net of each group of fish tanks on the floating aquaculture platform 1. This would prevent some fish fry from being able to swallow large pieces of fish food and thus not being able to eat normally. Also, large pieces of fish food deposited at the bottom of the protective net are prone to rotting and deterioration, polluting the aquaculture water environment and causing problems such as fish fry diseases. See Figures 4 to 5As shown, the floating aquaculture platform 1 is equipped with two sets of auxiliary components 3. Both sets of auxiliary components 3 include a piston tube 301. A reciprocating screw 302 is rotatably installed inside each set of piston tubes 301. One end of each set of reciprocating screws 302 is connected to a second gearbox 304. The two sets of second gearboxes 304 are respectively installed on two sets of first rotating rods 202. A threaded disc 303 is slidably connected to the reciprocating screw 302. A first transmission pipe 305 is connected inside the piston tube 301. A pressure valve 311 is provided on the first transmission pipe 305. A third transmission pipe 306 is fixedly connected to one end of the first transmission pipe 305. Multiple sets of nozzles 307 are provided on the third transmission pipe 306. Two sets of second transmission pipes 308 are fixedly connected to the nozzles 307. One end of each set of second transmission pipes 308 is connected to the inside of each set of feeding buckets 205. When ocean currents occur, to address the potential threat to the floating aquaculture platform 1 from marine debris carried by these currents, staff activate each set of motors 201 in reverse. Each set of motors 201 drives the fifth bevel gear 324 inside each set of second gearboxes 304 to rotate via the first rotating rod 202. The fifth bevel gear 324 meshes with the fourth bevel gear 314. The first rotating rod 202 drives each set of reciprocating screws 302 to rotate via the transmission between the fifth bevel gear 324 and the fourth bevel gear 314. Since each set of reciprocating screws 302 is connected to each set of threaded discs 303 via ball nut pairs, and the protrusions on the outside of each set of threaded discs 303 rotate inside the second groove inside each set of piston tubes 301, each set of reciprocating screws 302 can drive each set of threaded discs 303 to reciprocate inside the piston tubes 301. Meanwhile, each set of piston tubes 301 collects outside air through an intake pipe 309. A one-way valve 310 on each intake pipe 309 restricts the flow of outside air, ensuring that each intake pipe 309 only transmits outside air to the piston tube 301, preventing reverse air transmission. Therefore, as each reciprocating screw 302 drives each threaded disc 303 to reciprocate within each piston tube 301, the piston tube 301 continuously draws in outside air through the intake pipe 309 and stores it inside. When the pressure valve 311 on each first transmission pipe 305 detects that the air pressure inside each piston tube 301 has reached a preset maximum value, the pressure valve 311 automatically opens the connection between the first transmission pipe 305 and the piston tube 301. In this passage, each set of reciprocating screws 302 continues to drive each set of threaded discs 303 to move, pushing the gas stored inside each set of piston tubes 301 to be transmitted through each set of first transmission pipes 305 to each set of third transmission pipes 306. The gas inside each set of third transmission pipes 306 is then sprayed out to the outside of the floating aquaculture platform 1 through multiple sets of nozzles 307 at a certain pressure and speed. This method of intermittently transmitting the gas inside each set of piston tubes 301 through each set of first transmission pipes 305 to each set of third transmission pipes 306, and then spraying it out through multiple sets of nozzles 307, can form a gas barrier around the floating aquaculture platform 1, effectively preventing marine debris brought by ocean currents from approaching the floating aquaculture platform 1, thereby ensuring the normal growth of fish fry and the stability of the aquaculture environment inside the aquaculture platform. Additionally, when the staff starts each set of motors 201 to reverse, each set of motors 201 drives the fifth bevel gear 324 inside each set of second gearboxes 304 to rotate through each set of first rotating rods 202. At the same time, due to the adjustment of each set of one-way clutches 203, each set of first rotating rods 202 will not drive the feeding component 2 to rotate, thereby reducing the energy consumption of each set of motors 201. When each set of motors 201 starts rotating forward, each set of motors 201 drives each set of first rotating rods 202 to rotate. After adjustment by each set of one-way clutches 203, at this time, while each set of first rotating rods 202 drives the feeding component 2 to rotate, each set of motors 201 drives the fifth bevel gear 324 inside each set of second gearboxes 304 to rotate through the first rotating rods 202. Each set of first rotating rods 202 drives each set of reciprocating screws 302 to rotate through the transmission between the fifth bevel gear 324 and the fourth bevel gear 314. Therefore, each set of reciprocating screws 302 drives the threaded disc 303 to move, pushing... The gas stored inside the piston tube 301 is transmitted to the third transmission tube 306 through each set of first transmission tubes 305. A portion of the gas inside the third transmission tube 306 is transmitted to the feeding hopper 205 through two sets of second transmission tubes 308. The gas assists the feeding of each feeding hopper 205 and turntable 208. After the gas enters the feeding hopper 205 and turntable 208, it can loosen the fish food inside, preventing the fish food from clogging the feeding channel due to dense accumulation, ensuring smooth feeding, and allowing the fish food to be continuously and stably fed into the fish tank, ensuring stable feeding of the fish fry.

[0019] In an optional embodiment, four sets of motors 201 are fixedly installed on the floating aquaculture platform 1. The output ends of the four sets of motors 201 are all fixedly connected to the other end of the first rotating rod 202. A one-way clutch 203 is provided at the connection between the first rotating rod 202 and the synchronous belt 204.

[0020] It should be noted that the one-way clutch 203 plays a key role in this invention: when the motor 201 reverses to deal with the threat of marine debris brought by ocean currents, its adjustment prevents each set of first rotating rods 202 from driving the feeding component 2 to rotate, thus reducing the energy consumption of the motor 201. When the motor 201 rotates forward to feed the fish fry, its adjustment allows each set of first rotating rods 202 to both drive the feeding component 2 to rotate, achieving uniform dispensing of fish food and breaking up large pieces of fish food, and to drive the internal transmission of the second gearbox 304 to rotate the reciprocating screw 302, thereby pushing the gas in the piston tube 301 to be sprayed through the transmission pipe and nozzle 307 to form a gas barrier to block debris. At the same time, some of the gas can also assist the feeding bucket 205 and the turntable 208 in feeding, ensuring that the fish fry can eat stably.

[0021] In an optional embodiment, each set of first gearboxes 207 is provided with a first bevel gear 217, a second bevel gear 227, and a third bevel gear 237. The first bevel gear 217 meshes with the third bevel gear 237 through the second bevel gear 227. One end of each set of second rotating rods 206 penetrates the interior of each set of first gearboxes 207, and one end of the second rotating rod 206 is fixedly connected to the exterior of the first bevel gear 217. The exterior of the third bevel gear 237 penetrates the interior of the first gearboxes 207, and the exterior of the first gearboxes 207 is fixedly connected to the interior of the turntable 208.

[0022] It should be noted that, since the first bevel gear 217 meshes with the second bevel gear 227 and the third bevel gear 237, each set of second rotating rods 206 is driven by the first bevel gear 217, the second bevel gear 227 and the third bevel gear 237 inside the first gearbox 207, thereby causing each set of second rotating rods 206 to drive each set of turntables 208 to rotate.

[0023] In an optional embodiment, one end of each set of feeding barrels 205 penetrates the outside of the turntable 208, and one end of the feeding barrel 205 communicates with the inside of the turntable 208. One end of the feeding barrel 205 is provided with a first groove, and the turntable 208 is rotatably connected to the inside of the first groove of the feeding barrel 205.

[0024] It should be noted that since each set of turntables 208 is rotatably connected to the first groove of each set of feeding hoppers 205, each set of second rotating rods 206 is driven by the first bevel gear 217, the second bevel gear 227, and the third bevel gear 237 inside the first gearbox 207, thereby causing each set of second rotating rods 206 to drive each set of turntables 208 to rotate.

[0025] In an optional embodiment, both sets of second gearboxes 304 are provided with a fourth bevel gear 314 and a fifth bevel gear 324 that mesh with each other. One end of each set of first rotating rods 202 passes through the interior of the second gearbox 304 and the interior of the fifth bevel gear 324 in sequence, and the fifth bevel gear 324 is fixedly installed on the first rotating rod 202.

[0026] It should be noted that each motor 201 drives the fifth bevel gear 324 inside each second gearbox 304 to rotate through each first rotating rod 202. Each fifth bevel gear 324 meshes with each fourth bevel gear 314, and each first rotating rod 202 is driven by the fifth bevel gear 324 and the fourth bevel gear 314.

[0027] In an optional embodiment, one end of each of the two sets of reciprocating lead screws 302 passes through the interior of the piston tube 301 and the interior of the second gearbox 304 in sequence, and one end of the reciprocating lead screw 302 is fixedly connected to the exterior of the fourth bevel gear 314, while the fourth bevel gear 314 is rotatably connected to the interior of the second gearbox 304.

[0028] It should be noted that the fifth bevel tooth 324 of each group meshes with the fourth bevel tooth 314 of each group, and the first rotating rod 202 of each group drives the reciprocating screw 302 of each group to rotate through the transmission of the fifth bevel tooth 324 and the fourth bevel tooth 314.

[0029] In an optional embodiment, both sets of reciprocating lead screws 302 are connected to both sets of threaded discs 303 via ball nut pairs, both sets of piston tubes 301 have a second groove inside, and both sets of threaded discs 303 have a protrusion that slides inside the second groove on the outside.

[0030] It should be noted that since each set of reciprocating screws 302 is connected to each set of threaded discs 303 through ball nut pairs, and the protrusions on the outside of each set of threaded discs 303 rotate inside the second groove inside each set of piston tubes 301, each set of reciprocating screws 302 can drive each set of threaded discs 303 to reciprocate inside the piston tubes 301.

[0031] In an optional embodiment, two sets of third transmission pipes 306 are fixedly connected to the outside of the floating aquaculture platform 1 through multiple sets of mounting seats, and two sets of piston pipes 301 are internally connected to air inlet pipes 309, with one-way valves 310 provided on the air inlet pipes 309.

[0032] It should be noted that the one-way valve 310 installed on each intake pipe 309 restricts the flow of gas into each intake pipe 309, ensuring that each intake pipe 309 can only transmit external gas into each piston pipe 301, and that there will be no reverse gas transmission.

[0033] Working principle: The floating aquaculture platform 1 adopts floating dynamic positioning technology. Through all-electric propulsion and power control system, it can switch between all-sea-area aquaculture and fixed mooring modes. It has autonomous navigation and typhoon avoidance function. Before the arrival of typhoons and other severe weather, it can autonomously navigate to a safe sea area to reduce aquaculture risks. When staff need to feed the fish fry in the four fish tanks of the floating aquaculture platform 1, they pour the fish food into the turntable 208 of each group through the feeding bucket 205. Then, they start the motor 201 of each group to rotate forward. The motor 201 drives the first rotating rod 202 of each group to rotate. After adjustment by the one-way clutch 203 of each group, the first rotating rod 202 of each group drives the feeding bucket 205 of each group to rotate through the synchronous belt 204. The feeding bucket 205 of each group drives the second rotating rod 206 of each group to rotate through the connecting rod. Since the first bevel tooth 217 meshes with the second bevel tooth 227 and the third bevel tooth 237, and each set of turntables 208 is rotatably connected to the first groove of each set of feeding buckets 205, each set of second rotating rods 206 is driven by the first bevel tooth 217, the second bevel tooth 227 and the third bevel tooth 237 inside the first gearbox 207, so that each set of second rotating rods 206 drives each set of turntables 208 to rotate, and each set of turntables 208 evenly throws the fish food inside into each set of fish tanks of the floating aquaculture platform 1; Each feeding hopper 205 drives the second rotating rod 206 of each group to rotate via a connecting rod. At the same time, the second rotating rod 206 drives the crushing rod 209 to rotate. Since the first bevel gear 217 meshes with the second bevel gear 227 and the third bevel gear 237, the second rotating rod 206 of each group is driven by the first bevel gear 217, the second bevel gear 227 and the third bevel gear 237 inside the first gearbox 207. Therefore, the rotation direction of the turntable 208 driven by the second rotating rod 206 is opposite to the direction of the crushing rod 209 driven by the second rotating rod 206. The second rotating rod 206 drives the crushing rod 209 to rotate inside the turntable 208, crushing the fish food inside the turntable 208. When ocean currents occur, to address the potential threat to the floating aquaculture platform 1 from marine debris carried by these currents, staff activate each set of motors 201 in reverse. Each set of motors 201 drives the fifth bevel gear 324 inside each set of second gearboxes 304 to rotate via the first rotating rod 202. The fifth bevel gear 324 meshes with the fourth bevel gear 314. The first rotating rod 202 drives each set of reciprocating screws 302 to rotate via the transmission between the fifth bevel gear 324 and the fourth bevel gear 314. Since each set of reciprocating screws 302 is connected to each set of threaded discs 303 via ball nut pairs, and the protrusions on the outside of each set of threaded discs 303 rotate inside the second groove inside each set of piston tubes 301, each set of reciprocating screws 302 can drive each set of threaded discs 303 to reciprocate inside the piston tubes 301. Meanwhile, each set of piston tubes 301 collects outside air through an intake pipe 309. A one-way valve 310 on each intake pipe 309 restricts the flow of outside air into each set of piston tubes 301, preventing reverse airflow. Therefore, as each set of reciprocating screws 302 drives each set of threaded discs 303 to reciprocate within each set of piston tubes 301, the piston tubes 301 continuously draw in outside air through each set of intake pipes 309 and store it inside. When the pressure valve 311 on each set of first transmission pipes 305 detects that the air pressure inside each set of piston tubes 301 has reached a preset maximum value, the pressure valve 311 automatically opens. The passage between the first transmission pipe 305 and the piston pipe 301 is such that each set of reciprocating screws 302 continues to drive each set of threaded discs 303 to move, pushing the gas stored inside each set of piston pipes 301 to be transmitted through each set of first transmission pipes 305 to each set of third transmission pipes 306. The gas inside each set of third transmission pipes 306 is then sprayed out around the floating aquaculture platform 1 at a certain pressure and speed through multiple sets of nozzles 307. This intermittent method of transmitting the gas inside each set of piston pipes 301 through each set of first transmission pipes 305 to each set of third transmission pipes 306 and then spraying it out through multiple sets of nozzles 307 forms a gas barrier around the floating aquaculture platform 1, preventing marine debris brought by ocean currents from approaching the floating aquaculture platform 1. When each set of motors 201 starts rotating forward, each set of motors 201 drives each set of first rotating rods 202 to rotate. After adjustment by each set of one-way clutches 203, at the same time, each set of first rotating rods 202 drives the feeding component 2 to rotate. Simultaneously, each set of motors 201 drives the fifth bevel gear 324 inside each set of second gearboxes 304 to rotate through the first rotating rods 202. Each set of first rotating rods 202 drives each set of reciprocating screws 302 through the transmission between the fifth bevel gear 324 and the fourth bevel gear 314. The rotation causes each set of reciprocating screws 302 to drive the threaded disc 303 to move, pushing the gas stored inside the piston tube 301 to be transmitted through each set of first transmission tubes 305 to each set of third transmission tubes 306. A portion of the gas inside the third transmission tube 306 is transmitted through two sets of second transmission tubes 308 to each set of feeding hoppers 205. The gas assists in the feeding of each set of feeding hoppers 205 and turntables 208. After the gas enters the feeding hoppers 205 and turntables 208, it can loosen the fish food inside.

[0034] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A floating, all-sea-area dynamic aquaculture platform, comprising a floating aquaculture platform (1), characterized in that, The floating aquaculture platform (1) is equipped with four sets of feeding components (2). Each of the four sets of feeding components (2) includes a feeding bucket (205). The four sets of feeding buckets (205) are rotatably installed inside the four sets of fish tanks of the floating aquaculture platform (1) through a fixed frame. One end of the feeding bucket (205) is rotatably connected to a turntable (208). One end of the feeding bucket (205) is fixedly installed with a second rotating rod (206) through a connecting rod. One end of the second rotating rod (206) is connected to a first gearbox (207). The bottom of the first gearbox (207) is fixedly connected to the inside of the turntable (208). A crushing rod (209) is fixedly installed on the second rotating rod (206). The feeding bucket (205) is connected to a first rotating rod (202) through a synchronous belt (204). One end of the first rotating rod (202) is rotatably connected to the outer surface of the floating aquaculture platform (1). The floating aquaculture platform (1) is equipped with two sets of auxiliary components (3). Each set of auxiliary components (3) includes a piston tube (301). A reciprocating screw (302) is rotatably installed inside each set of piston tubes (301). A second gearbox (304) is connected to one end of each set of reciprocating screws (302). The two sets of second gearboxes (304) are respectively installed on two sets of first rotating rods (202). A threaded disc (303) is slidably connected to the reciprocating screw (302). The piston tube (301) is internally connected to a first transmission tube (305), and a pressure valve (311) is provided on the first transmission tube (305). A third transmission tube (306) is fixedly connected to one end of the first transmission tube (305). Multiple sets of nozzles (307) are provided on the third transmission tube (306). Two sets of second transmission tubes (308) are fixedly connected to the nozzles (307). One end of each set of second transmission tubes (308) is connected to the inside of each set of feeding buckets (205).

2. The floating, all-sea-area dynamic aquaculture platform according to claim 1, characterized in that, Four sets of motors (201) are fixedly installed on the floating aquaculture platform (1). The output ends of the four sets of motors (201) are all fixedly connected to the other end of the first rotating rod (202). A one-way clutch (203) is provided at the connection between the first rotating rod (202) and the synchronous belt (204).

3. The floating, all-sea-area dynamic aquaculture platform according to claim 1, characterized in that, Each set of first gearboxes (207) is provided with a first bevel tooth (217), a second bevel tooth (227), and a third bevel tooth (237). The first bevel tooth (217) meshes with the third bevel tooth (237) through the second bevel tooth (227). One end of each set of second rotating rods (206) penetrates the interior of each set of first gearboxes (207), and one end of the second rotating rods (206) is fixedly connected to the exterior of the first bevel tooth (217). The exterior of the third bevel tooth (237) penetrates the interior of the first gearbox (207), and the exterior of the first gearbox (207) is fixedly connected to the interior of the turntable (208).

4. The floating, all-sea-area dynamic aquaculture platform according to claim 1, characterized in that, One end of each feeding bucket (205) penetrates the outside of the turntable (208), and one end of the feeding bucket (205) is connected to the inside of the turntable (208). One end of the feeding bucket (205) is provided with a first groove, and the turntable (208) is rotatably connected to the inside of the first groove of the feeding bucket (205).

5. A floating, all-sea-area dynamic aquaculture platform according to claim 1, characterized in that, Both sets of the second gearboxes (304) are equipped with a fourth bevel tooth (314) and a fifth bevel tooth (324) that mesh with each other. One end of each set of the first rotating rods (202) passes through the interior of the second gearbox (304) and the interior of the fifth bevel tooth (324) in sequence, and the fifth bevel tooth (324) is fixedly installed on the first rotating rod (202).

6. A floating, all-sea-area dynamic aquaculture platform according to claim 5, characterized in that, One end of each of the two sets of reciprocating lead screws (302) passes through the inside of the piston tube (301) and the inside of the second gearbox (304) in sequence, and one end of the reciprocating lead screw (302) is fixedly connected to the outside of the fourth bevel gear (314), and the fourth bevel gear (314) is rotatably connected to the inside of the second gearbox (304).

7. A floating, all-sea-area dynamic aquaculture platform according to claim 1, characterized in that, Both sets of reciprocating lead screws (302) are connected to two sets of threaded discs (303) through ball nut pairs. Both sets of piston tubes (301) have a second groove inside. Both sets of threaded discs (303) have a protrusion that slides inside the second groove on the outside.

8. A floating, all-sea-area dynamic aquaculture platform according to claim 1, characterized in that, The two sets of third transmission pipes (306) are fixedly connected to the outside of the floating aquaculture platform (1) through multiple sets of mounting seats. The two sets of piston pipes (301) are connected to an air inlet pipe (309), and a one-way valve (310) is provided on the air inlet pipe (309).

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