An aquaculture management system

Abstract

The present invention discloses a management system for aquaculture, the structure of which includes an operation box, a bottom plate, an oxygenation tank, and a combined cover. The oxygenation tank is installed on the operation box, and the operation box is connected to the oxygenation tank. The operation box is provided on the bottom plate, and the operation box is movably connected to the bottom plate. The combined cover is provided on the operation box, and the operation box is in clearance fit with the combined cover. The operation box is provided with an operator, a sensing block, a box body, a waterweed board, and a transmission pipe. Through the assembly of the liquid dispenser, the present invention realizes the dispensing of the liquid medicine. The liquid dispenser is an independent dispensing structure. During dispensing, the liquid medicine will not easily penetrate into the flannelette belt and be absorbed by the flannelette belt, resulting in the deterioration of the residual liquid medicine on the flannelette belt and polluting the aquaculture environment. The hemispherical structure of the mounting block can increase the dispensing range of the liquid medicine, making the liquid medicine dispensing more comprehensive.

Description

Technical Field

[0001] The invention relates to the technical field of livestock and poultry and aquaculture, and in particular to a management system for aquaculture. Background Art

[0002] Aquaculture is the production activity of breeding, cultivating and harvesting aquatic plants and animals under human control. It generally includes the whole process of growing aquatic products from seedlings under artificial feeding management. In a broad sense, it can also include the proliferation of aquatic resources. The management system for aquaculture is to manage the living environment of aquatic products such as water quality and temperature in aquaculture and the feeding of aquatic products to promote the growth and development of aquatic products.

[0003] The feed of the aquaculture management system is attached to the velvet belt of the delivery structure and can float on the surface of the aquaculture liquid with the velvet belt to prevent the feed from settling to the bottom of the aquaculture box. If aquaculture liquid is delivered into the delivery structure of the management system, the aquaculture liquid will penetrate into the velvet belt and be absorbed by the velvet belt. If the management system is used for a long time, the residual liquid in the velvet belt will deteriorate and pollute the aquaculture environment. Summary of the invention

[0004] In view of the shortcomings of the prior art, the present invention is achieved through the following technical solutions: an aquaculture management system, which comprises an operation box, a bottom plate, an aeration tank, and a combination cover, wherein the aeration tank is installed on the operation box, the operation box is connected to the aeration tank, the bottom plate is provided with an operation box, the operation box is movably connected to the bottom plate, the combination cover is provided on the operation box, and the operation box and the combination cover are clearance-matched;

[0005] The operation box is provided with an operator, a sensor block, a box body, a water grass board, and a transmission pipe. The operator is installed inside the box body, and the box body is connected to the operator. The sensor block is arranged on the box body, and the box body is movably connected to the sensor block. The box body is provided with a water grass board, and the water grass board is embedded in the box body. The transmission pipe is installed on the box body, and the box body is movably connected to the transmission pipe. The transmission pipe is arranged on the oxygenation tank, and the oxygenation tank is connected to the transmission pipe.

[0006] As a further optimization of the present technical solution, the operator is provided with a processor, a shell, a moving block, a moving path, a liquid dispenser, and an assembly block. Moving paths are provided on both sides of the shell, and the moving path is movably connected to the shell. A moving block is provided on the moving path, and the moving block is slidably connected to the moving path. An assembly block is provided on the moving block, and the assembly block is movably connected to the moving block through a movable shaft. A processor is installed on the moving block, and the processor is connected to the moving block. A liquid dispenser is provided on the assembly block, and the liquid dispenser is movably engaged with the assembly block. The shell is installed inside a box, and the box is connected to the shell.

[0007] As a further optimization of this technical solution, an active column is provided inside the assembly block. An active rod is provided inside the active column of the assembly block. A slide rail is provided inside the active column of the assembly block. The active column of the assembly block is slidably connected to the active rod. Connecting holes are provided on both sides of the assembly block. The other end of the active rod of the assembly block is connected to the processor.

[0008] As a further optimization of this technical solution, the liquid dispenser is provided with a pusher, a mounting plate, an extension shaft, an extension cavity, a mounting block, a mounting body, and a deflection block. A mounting block is provided on the mounting body. The mounting block is in clearance fit with the mounting body. A pusher is provided on the mounting plate. The pusher is movably connected to the mounting plate. An extension shaft is provided inside the extension cavity. The extension shaft is movably connected to the extension cavity. The deflection block is mounted on the mounting body. The mounting body is movably connected to the deflection block. The mounting plate is provided on the assembly block. The assembly block is connected to the mounting plate. A chute is provided inside the extension cavity. A slide plate and a connecting column are provided on the extension shaft. The slide plate of the extension shaft is fitted into the chute of the extension cavity. The mounting body is a circular connecting plate. A rotating slide rail is provided on the mounting body. The mounting block is fitted into the rotating slide rail of the mounting body through a movable shaft. The mounting block is a hemispherical connecting block. Through holes are provided on the mounting block.

[0009] As a further optimization of this technical solution, the deflection block is an arc connecting block. An arc cavity is provided on the deflection block. A spherical connecting block is fitted inside the arc cavity of the deflection block. An opening is provided on the arc cavity of the deflection block. The opening of the arc cavity of the deflection block is smaller than the diameter of the spherical connecting block. The other end of the spherical connecting block of the deflection block is connected to the connecting column of the extension shaft. An opening is provided on the deflection block. The diameter of the notch of the deflection block coincides with the diameter of the connecting column of the extension shaft.

[0010] As a further optimization of this technical solution, the pusher is provided with a snap block, a snap plate, a displacement shaft, an operation tube, a combination cavity, a push plate, and a displacement block. An operation tube is provided at the center of the combination cavity. The operation tube is movably connected to the combination cavity. A snap block is provided inside the snap plate. The snap block is in clearance fit with the snap plate. The push plate is provided on the combination cavity. The combination cavity is connected to the push plate. A displacement block is provided on the displacement shaft. The displacement block is slidably connected to the displacement shaft. The operation tube is mounted on the mounting body. The mounting body is connected to the operation tube. The operation tube is of a rubber hose structure. A threaded notch is provided on the snap block. The snap plate and the push plate are connected through a connecting column body. Notches that coincide with the diameter of the displacement shaft are provided on both the snap plate and the push plate. A rubber layer is provided on the surface of the snap plate. A long shaft slideway is provided on the displacement shaft.

[0011] As a further optimization of this technical solution, an activity cavity is provided on the buckle plate, a sliding notch is provided on the buckle plate, an activity block is provided on the buckle block, a connection handle is provided on the activity block of the buckle block, a threaded strip is provided on the connection handle of the buckle block, the connection handle of the buckle block is fitted in the sliding notch of the buckle plate, a threaded groove is provided on the activity cavity of the buckle plate, the buckle block is fitted inside the activity cavity of the buckle plate, two connecting plates are provided on the activity block of the buckle plate, threaded grooves are provided on the connecting plates of the buckle plate, the connecting plates of the buckle plate are perpendicular to the activity block of the buckle plate, a square connecting block is provided on the displacement block, and a buckle notch is provided on the square connecting block of the displacement block.

[0012] As a further optimization of this technical solution, the processor is provided with a clamping plate, a clamping block, a processing shaft, an adjusting tube, a processing block, a processing channel, and a body. The processing block is installed on the processing shaft, the processing shaft and the processing block are movably connected through a movable shaft. A processing channel is provided on the body, and the processing channel is movably connected to the body. The adjusting tube is provided on the body, and the body is movably clamped with the adjusting tube. A clamping block is provided on the clamping plate, and the clamping block is in clearance fit with the clamping plate. The body is installed on an assembling block, and the assembling block is connected to the body. The processing block is an arc connecting block, a through hole is provided on the processing block, a slider is provided at one end of the processing shaft, and the slider of the processing shaft is fitted in the processing channel. A sliding groove is provided on the processing channel, and a hollow connecting tube and an assembling connecting tube are provided on the adjusting tube. The hollow connecting tube of the adjusting tube is fitted inside the assembling connecting tube, the assembling connecting tube of the adjusting tube is connected to the connecting hole of the assembling block, and the hollow connecting tube of the adjusting tube is connected to the body. The clamping plate is installed on the processing block, a protruding column body is provided on the clamping plate, a hollow opening is provided at the central position of the clamping plate, a circular threaded groove is provided on the clamping plate, a circular hollow opening is provided on the clamping block, a rotating groove is provided on the clamping block, a movable shaft is provided on the outer edge of the clamping block, the movable shaft of the clamping block is fitted in the rotating groove of the clamping block through a connecting block, a circular threaded protruding block is provided on the movable shaft of the clamping block, and a notch is provided at the central position of the clamping block.

[0013] Beneficial effects

[0014] The management system for aquaculture of the present invention has the following advantages compared with the prior art:

[0015] 1. Through the assembly of the liquid dispenser, the present invention realizes the dispensing of the liquid medicine. There is no flannelette on the liquid dispenser. When dispensing, the liquid medicine will not easily penetrate into the flannelette and be absorbed by the flannelette, resulting in the deterioration of the residual liquid medicine on the flannelette and polluting the aquaculture environment. The hemispherical structure of the installation block can increase the dispensing range of the liquid medicine and make the liquid medicine dispensing more comprehensive.

[0016] 2. The processor of the present invention moves by means of the movable column and the movable rod, creating a height difference between the processor and the liquid dispenser, which can prevent excessive liquid from splashing onto the flannelette belt when the liquid dispenser discharges the liquid medicine, resulting in the flannelette belt adsorbing the liquid medicine. The management system assembles and clamps the flannelette belt through the clamping structure to realize the disassembly and installation of the flannelette belt, facilitating the replacement of the flannelette belt and preventing the residual liquid medicine on the flannelette belt from deteriorating and polluting the aquaculture environment. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Other features, objects, and advantages of the present invention will become more apparent by reading the following detailed description of non-limiting embodiments with reference to the accompanying drawings:

[0018] Figure 1 It is a schematic diagram of the overall structure of a management system for aquaculture according to the present invention.

[0019] Figure 2 It is a schematic diagram of the operation box structure of the present invention.

[0020] Figure 3 It is a schematic diagram of the operator structure of the present invention.

[0021] Figure 4 It is a schematic diagram of the liquid dispenser structure of the present invention.

[0022] Figure 5 It is a schematic diagram of the pusher structure of the present invention.

[0023] Figure 6 It is a schematic diagram of the processor structure of the present invention.

[0024] In the figure: operation box 1, bottom plate 2, oxygenation tank 3, combined cover 4, operator 1a, sensing block 1b, box body 1c, waterweed board 1d, transmission pipe 1e, processor a1, housing a2, moving block a3, moving track a4, liquid dispenser a5, assembly block a6, pusher a51, mounting plate a52, extension shaft a53, extension cavity a54, mounting block a55, mounting body a56, deflection block a57, snap block 511, snap plate 512, displacement shaft 513, operation pipe 514, combined cavity 515, push plate 516, displacement block 517, clamping plate a11, clamping block a12, processing shaft a13, adjusting pipe a14, processing block a15, processing track a16, device body a17. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0025] To make the technical means, creative features, achieved purposes, and functions of the present invention easy to understand, the preferred embodiments of the present invention will be further described below in conjunction with the specific embodiments and the accompanying drawings.

[0026] Embodiment 1

[0027] Please refer to Figures 1-5, an aquaculture management system, the structure of which includes an operation box 1, a bottom plate 2, an oxygenation tank 3, and a combined cover 4. The oxygenation tank 3 is installed on the operation box 1, the operation box 1 is connected to the oxygenation tank 3, the bottom plate 2 is provided with the operation box 1, the operation box 1 is movably connected to the bottom plate 2, the combined cover 4 is arranged on the operation box 1, and the operation box 1 is in clearance fit with the combined cover 4;

[0028] The operation box 1 is provided with an operator 1a, a sensing block 1b, a box body 1c, an aquatic plant board 1d, and a transmission pipe 1e. The operator 1a is installed inside the box body 1c, the box body 1c is connected to the operator 1a, the sensing block 1b is arranged on the box body 1c, the box body 1c is movably connected to the sensing block 1b, the aquatic plant board 1d is arranged inside the box body 1c, the aquatic plant board 1d is fitted with the box body 1c, the transmission pipe 1e is installed on the box body 1c, the box body 1c is movably connected to the transmission pipe 1e, the transmission pipe 1e is arranged on the oxygenation tank 3, and the oxygenation tank 3 is connected to the transmission pipe 1e to realize the aquaculture management.

[0029] The operator 1a is provided with a processor a1, a housing a2, a moving block a3, a moving track a4, a liquid dispenser a5, and an assembly block a6. Moving tracks a4 are arranged on both sides of the housing a2, the moving tracks a4 are movably connected to the housing a2, the moving block a3 is arranged on the moving tracks a4, the moving block a3 is slidably connected to the moving tracks a4, the assembly block a6 is arranged on the moving block a3, the assembly block a6 is movably connected to the moving block a3 through a movable shaft, the processor a1 is installed on the moving block a3, the processor a1 is connected to the moving block a3, the liquid dispenser a5 is arranged on the assembly block a6, the liquid dispenser a5 is movably clamped with the assembly block a6, and the housing a2 is installed inside the box body 1c, and the box body 1c is connected to the housing a2 to realize the feeding and medicine liquid dispensing.

[0030] An activity column is arranged inside the assembly block a6, an activity rod is arranged inside the activity column of the assembly block a6, a slide rail is arranged inside the activity column of the assembly block a6, the activity column of the assembly block a6 is slidably connected to the activity rod, connection holes are arranged on both sides of the assembly block a6, and the other end of the activity rod of the assembly block a6 is connected to the processor a1 to realize the assembly adjustment of the dispensing structure.

[0031] The liquid dispenser a5 is provided with a pusher a51, a mounting plate a52, an extension shaft a53, an extension cavity a54, a mounting block a55, a mounting body a56, and a deflection block a57. The mounting body a56 is provided with a mounting block a55, and the mounting block a55 is in clearance fit with the mounting body a56. The mounting plate a52 is provided with a pusher a51, and the pusher a51 is movably connected to the mounting plate a52. The extension shaft a53 is arranged inside the extension cavity a54, and the extension shaft a53 is movably connected to the extension cavity a54. The deflection block a57 is mounted on the mounting body a56, and the mounting body a56 is movably connected to the deflection block a57. The mounting plate a52 is arranged on the assembly block a6, and the assembly block a6 is connected to the mounting plate a52. The inside of the extension cavity a54 is provided with a chute, and the extension shaft a53 is provided with a sliding plate and a connecting column. The sliding plate of the extension shaft a53 is fitted into the chute of the extension cavity a54. The mounting body a56 is a circular connecting plate, and the mounting body a56 is provided with a rotating slide rail. The mounting block a55 is fitted into the rotating slide rail of the mounting body a56 through a movable shaft. The mounting block a55 is a hemispherical connecting block, and the mounting block a55 is provided with a through hole to realize the dispensing of the liquid medicine.

[0032] The deflection block a57 is an arc connecting block, and the deflection block a57 is provided with an arc cavity. A spherical connecting block is fitted inside the arc cavity of the deflection block a57. The arc cavity of the deflection block a57 is provided with an opening, and the opening of the arc cavity of the deflection block a57 is smaller than the diameter of the spherical connecting block. The other end of the spherical connecting block of the deflection block a57 is connected to the connecting column of the extension shaft a53. The deflection block a57 is provided with an opening, and the diameter of the notch of the deflection block a57 is in line with the diameter of the connecting column of the extension shaft a53 to realize the adjustment of the dispensing range of the liquid medicine.

[0033] The pusher a51 is provided with a buckle block 511, a buckle plate 512, a displacement shaft 513, an operation tube 514, a combined cavity 515, a push plate 516, and a displacement block 517. An operation tube 514 is provided at the central position of the combined cavity 515. The operation tube 514 is movably connected to the combined cavity 515. A buckle block 511 is provided inside the buckle plate 512. The buckle block 511 is in clearance fit with the buckle plate 512. The push plate 516 is provided on the combined cavity 515. The combined cavity 515 is connected to the push plate 516. A displacement block 517 is provided on the displacement shaft 513. The displacement block 517 is slidably connected to the displacement shaft 513. The operation tube 514 is installed on the installation body a56. The installation body a56 is connected to the operation tube 514. The operation tube 514 is of a rubber hose structure. The buckle block 511 is provided with a threaded notch. The buckle plate 512 and the push plate 516 are connected by a connecting column body. Both the buckle plate 512 and the push plate 516 are provided with notches that match the diameter of the displacement shaft 513. The surface of the buckle plate 512 is provided with a rubber layer. The displacement shaft 513 is provided with a long-axis slideway to realize the pushing of the liquid medicine.

[0034] The buckle plate 512 is provided with an activity cavity. The buckle plate 512 is provided with a sliding notch. The buckle block 511 is provided with an activity block. A connecting handle is provided on the activity block of the buckle block 511. A threaded strip is provided on the connecting handle of the buckle block 511. The connecting handle of the buckle block 511 is fitted in the sliding notch of the buckle plate 512. A threaded groove is provided on the activity cavity of the buckle plate 512. The buckle block 511 is fitted inside the activity cavity of the buckle plate 512. Two connecting plates are provided on the activity block of the buckle plate 512. Threaded grooves are provided on the connecting plates of the buckle plate 512. The connecting plates of the buckle plate 512 and the activity block of the buckle plate 512 are perpendicular to each other. A square connecting block is provided on the displacement block 517. A buckle notch is provided on the square connecting block of the displacement block 517 to realize the assembly of the pushing structure.

[0035] When the aquaculture management system dispenses aquaculture liquid medicine, the liquid medicine is filled into the interior of the combined cavity 515. The liquid medicine is guided through the operation pipe 514 into the mounting block a55. The assembly buckle plate 512 and the push plate 516 are assembled. The notch of the push plate 516 aligns with the displacement shaft 513 and snaps into the combined cavity 515. The buckle plate 512 is aligned with the displacement block 517. The buckle block 511 is pushed, and the buckle block 511 extends out from the movable cavity of the buckle plate 512 and snaps into the buckle slot of the displacement block 517. The connection between the buckle plate 512 and the displacement block 517 is achieved by passing a bolt through the threaded groove on the connecting plate of the buckle block 511. The displacement block 517 slides on the displacement shaft 513, pushing the push plate 516 to squeeze the liquid medicine. By the extrusion of the push plate 516, the liquid medicine is sprayed out from the mounting block a55. The mounting block a55 is a hemispherical connecting block, and the arc-shaped structure increases the spray angle of the liquid, thereby expanding the spraying range of the liquid medicine. The extension shaft a53 on one side of the mounting plate a52 slides on the extension cavity a54, causing a height difference between the extension shafts a53 connected to both sides of the mounting plate a52. The extension shaft a53 deflects on the deflection block a57, thereby achieving the inclination of the mounting body a56. When the mounting body a56 is inclined, it will involve the operation pipe 514, so that the mounting block a55 sprays towards the inclined end, expanding the spraying area. The movable shaft of the mounting block a55 rotates on the rotating slide rail of the mounting body a56, and the liquid medicine can be swung for spraying. The moving block a3 slides along the moving track a4, driving the liquid dispenser a5 to move, further expanding the range where the liquid dispenser a5 can be placed.

[0036] Embodiment 2

[0037] Please refer to Figures 1-6 As shown in the figure, an aquaculture management system includes an operation box 1, a bottom plate 2, an oxygenation tank 3, and a combined cover 4. The oxygenation tank 3 is installed on the operation box 1. The operation box 1 is connected to the oxygenation tank 3. The bottom plate 2 is provided with the operation box 1. The operation box 1 is movably connected to the bottom plate 2. The combined cover 4 is arranged on the operation box 1. The operation box 1 and the combined cover 4 are in clearance fit.

[0038] The operation box 1 is provided with an operator 1a, a sensing block 1b, a box body 1c, an aquatic plant board 1d, and a transmission pipe 1e. The operator 1a is installed inside the box body 1c. The box body 1c is connected to the operator 1a. The sensing block 1b is arranged on the box body 1c. The box body 1c is movably connected to the sensing block 1b. The aquatic plant board 1d is arranged inside the box body 1c. The aquatic plant board 1d is fitted into the box body 1c. The transmission pipe 1e is installed on the box body 1c. The box body 1c is movably connected to the transmission pipe 1e. The transmission pipe 1e is arranged on the oxygenation tank 3. The oxygenation tank 3 is connected to the transmission pipe 1e to achieve the aquaculture management.

[0039] The operator 1a is provided with a processor a1, a housing a2, a moving block a3, a moving track a4, a liquid dispenser a5, and an assembly block a6. Moving tracks a4 are provided on both sides of the housing a2. The moving tracks a4 are movably connected to the housing a2. A moving block a3 is provided on the moving tracks a4. The moving block a3 is slidably connected to the moving tracks a4. An assembly block a6 is provided on the moving block a3. The assembly block a6 is movably connected to the moving block a3 through a movable shaft. A processor a1 is installed on the moving block a3. The processor a1 is connected to the moving block a3. A liquid dispenser a5 is provided on the assembly block a6. The liquid dispenser a5 is movably engaged with the assembly block a6. The housing a2 is installed inside the box 1c. The box 1c is connected to the housing a2 to achieve the dispensing of feed and liquid medicine.

[0040] An active column is provided inside the assembly block a6. An active rod is provided inside the active column of the assembly block a6. A slide rail is provided inside the active column of the assembly block a6. The active column of the assembly block a6 is slidably connected to the active rod. Connecting holes are provided on both sides of the assembly block a6. The other end of the active rod of the assembly block a6 is connected to the processor a1 to achieve the assembly adjustment of the dispensing structure.

[0041] The liquid dispenser a5 is provided with a pusher a51, a mounting plate a52, an extension shaft a53, an extension cavity a54, a mounting block a55, a mounting body a56, and a deflection block a57. A mounting block a55 is provided on the mounting body a56. The mounting block a55 is in clearance fit with the mounting body a56. A pusher a51 is provided on the mounting plate a52. The pusher a51 is movably connected to the mounting plate a52. An extension shaft a53 is provided inside the extension cavity a54. The extension shaft a53 is movably connected to the extension cavity a54. The deflection block a57 is installed on the mounting body a56. The mounting body a56 is movably connected to the deflection block a57. The mounting plate a52 is provided on the assembly block a6. The assembly block a6 is connected to the mounting plate a52. A chute is provided inside the extension cavity a54. A slide plate and a connecting column are provided on the extension shaft a53. The slide plate of the extension shaft a53 is fitted into the chute of the extension cavity a54. The mounting body a56 is a circular connecting plate. A rotating slide rail is provided on the mounting body a56. The mounting block a55 is fitted into the rotating slide rail of the mounting body a56 through a movable shaft. The mounting block a55 is a hemispherical connecting block. A through hole is provided on the mounting block a55 to achieve the dispensing of liquid medicine.

[0042] The deflection block a57 is an arc connection block. An arc-shaped cavity is provided on the deflection block a57. A spherical connection block is fitted inside the arc-shaped cavity of the deflection block a57. An opening is provided on the arc-shaped cavity of the deflection block a57. The opening of the arc-shaped cavity of the deflection block a57 is smaller than the diameter of the spherical connection block. The other end of the spherical connection block of the deflection block a57 is connected to the connecting column of the extension shaft a53. An opening is provided on the deflection block a57. The notch diameter of the deflection block a57 coincides with the diameter of the connecting column of the extension shaft a53, realizing the adjustment of the liquid medicine delivery range.

[0043] The pusher a51 is provided with a snap block 511, a snap plate 512, a displacement shaft 513, an operation tube 514, a combined cavity 515, a push plate 516, and a displacement block 517. The operation tube 514 is provided at the central position of the combined cavity 515. The operation tube 514 is movably connected to the combined cavity 515. The snap block 511 is provided inside the snap plate 512. The snap block 511 is in clearance fit with the snap plate 512. The push plate 516 is provided on the combined cavity 515. The combined cavity 515 is connected to the push plate 516. The displacement block 517 is provided on the displacement shaft 513. The displacement block 517 is slidably connected to the displacement shaft 513. The operation tube 514 is installed on the mounting body a56. The mounting body a56 is connected to the operation tube 514. The operation tube 514 is of a rubber hose structure. The snap block 511 is provided with a threaded notch. The snap plate 512 and the push plate 516 are connected by a connecting column body. Notches that coincide with the diameter of the displacement shaft 513 are provided on both the snap plate 512 and the push plate 516. A rubber layer is provided on the surface of the snap plate 512. A long-axis slideway is provided on the displacement shaft 513, realizing the pushing of the liquid medicine.

[0044] An activity cavity is provided on the snap plate 512. A sliding notch is provided on the snap plate 512. An activity block is provided on the snap block 511. A connecting handle is provided on the activity block of the snap block 511. A threaded strip is provided on the connecting handle of the snap block 511. The connecting handle of the snap block 511 is fitted in the sliding notch of the snap plate 512. A threaded groove is provided on the activity cavity of the snap plate 512. The snap block 511 is fitted inside the activity cavity of the snap plate 512. Two connecting plates are provided on the activity block of the snap plate 512. Threaded grooves are provided on the connecting plates of the snap plate 512. The connecting plates of the snap plate 512 and the activity block of the snap plate 512 are perpendicular to each other. A square connecting block is provided on the displacement block 517. A snap groove is provided on the square connecting block of the displacement block 517, realizing the assembly of the pushing structure.

[0045] The processor a1 is provided with a clamping plate a11, a clamping block a12, a processing shaft a13, an adjusting tube a14, a processing block a15, a processing channel a16, and a body a17. The processing block a15 is installed on the processing shaft a13. The processing shaft a13 and the processing block a15 are movably connected by a movable shaft. The body a17 is provided with a processing channel a16. The processing channel a16 is movably connected to the body a17. The adjusting tube a14 is provided on the body a17. The body a17 and the adjusting tube a14 are movably engaged. The clamping plate a11 is provided with a clamping block a12. The clamping block a12 and the clamping plate a11 are in clearance fit. The body a17 is installed on an assembly block a6. The assembly block a6 is connected to the body a17. The processing block a15 is an arc connecting block. The processing block a15 is provided with a through hole. One end of the processing shaft a13 is provided with a slider. The slider of the processing shaft a13 is fitted into the processing channel a16. The processing channel a16 is provided with a chute. The adjusting tube a14 is provided with a hollow connecting tube and an assembly connecting tube. The hollow connecting tube of the adjusting tube a14 is fitted inside the assembly connecting tube. The assembly connecting tube of the adjusting tube a14 is connected to the connecting hole of the assembly block a6. The hollow connecting tube of the adjusting tube a14 is connected to the body a17. The clamping plate a11 is installed on the processing block a15. The clamping plate a11 is provided with a protruding cylinder. The center position of the clamping plate a11 is provided with a hollow opening. The clamping plate a11 is provided with an annular thread groove. The clamping block a12 is provided with a circular hollow opening. The clamping block a12 is provided with a rotating groove. The outer edge of the clamping block a12 is provided with a movable shaft. The movable shaft of the clamping block a12 is fitted into the rotating groove of the clamping block a12 through a connecting block. The movable shaft of the clamping block a12 is provided with an annular thread protruding block. The center position of the clamping block a12 is provided with a notch, realizing the adjustment of feed delivery.

[0046] The above shows and describes the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments. What is described in the above embodiments and the specification only illustrates the principles of the present invention. Without departing from the spirit or basic features of the present invention, the present invention can not only be implemented in other specific forms, but also have various changes and improvements. These changes and improvements all fall within the scope of the present invention claimed. Therefore, the scope of the present invention claimed is defined by the appended claims and their equivalents, rather than the above description.

[0047] On the basis of the first embodiment, the processor a1 and the assembly block a6 are installed. The assembly block a6 rotates by means of the movable shaft connected to the movable block a3, so that the processing block a15 faces the cavity opening of the housing a2. The processing block a15 rotates along the processing shaft a13 to unfold the processing block a15, drill holes in the flannel belt, snap the holes of the flannel belt onto the column of the clamping plate a11, then install the clamping block a12, and rotate the movable shaft on the clamping block a12 to screw the knob of the movable shaft of the clamping block a12 into the annular thread groove of the clamping plate a11, clamping the flannel belt between the clamping block a12 and the clamping plate a11. After the flannel belt is assembled, the processing block a15 turns to the culture solution, and the processing block a15 closes to form a hemispherical feeding cavity for feeding. The feed is input through the connection hole of the assembly block a6 and guided by the regulating pipe a14. When the feeding is almost finished, the slider of the processing shaft a13 slides on the processing track a16 to expand the cavity opening between the processing blocks a15. The processing block a15 rotates along the processing shaft a13 by means of the movable shaft to completely unfold the feeding cavity, so that the remaining accumulated feed falls onto the culture solution. When the management system injects the liquid medicine, the movable rod connected to the device body a17 slides in the movable column of the assembly block a6, driving the processor a1 to move towards one side of the assembly block a6. When the device body a17 moves, the hollow connecting pipe of the regulating pipe a14 moves inside the assembled connecting pipe of the regulating pipe a14, thereby realizing the adjustment of the position of the processor a1. A height difference in movement is generated between the processor a1 and the liquid injector a5, so that when the liquid injector a5 sprays the liquid medicine, the liquid medicine will not easily splash onto the flannel belt of the processor a1.

[0048] In addition, it should be understood that although this specification is described according to the embodiments, not every embodiment only contains an independent technical solution. This narrative way 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. An aquaculture management system, characterized in that: Its structure includes an operation box (1), a bottom plate (2), an oxygenation tank (3), and a combined cover (4). The oxygenation tank (3) is installed on the operation box (1). The operation box (1) is movably connected to the bottom plate (2), and the combined cover (4) is provided on the operation box (1). The operation box (1) is provided with an operator (1a), a sensing block (1b), a box body (1c), an aquatic plant board (1d), and a transmission pipe (1e). The operator (1a) is installed inside the box body (1c). The box body (1c) is movably connected to the sensing block (1b). The aquatic plant board (1d) is provided inside the box body (1c). The box body (1c) is movably connected to the transmission pipe (1e), and the transmission pipe (1e) is provided on the oxygenation tank (3). The operator (1a) is provided with a processor (a1), a housing (a2), a moving block (a3), a moving track (a4), a liquid dispenser (a5), and an assembly block (a6). Moving tracks (a4) are provided on both sides of the housing (a2). The moving block (a3) is slidably connected to the moving track (a4). An assembly block (a6) is provided on the moving block (a3). The processor (a1) is connected to the moving block (a3). A liquid dispenser (a5) is provided on the assembly block (a6). The box body (1c) is connected to the housing (a2). An activity column is provided inside the assembly block (a6), and an activity rod is provided inside the activity column of the assembly block (a6). The liquid dispenser (a5) is provided with a pusher (a51), a mounting plate (a52), an extension shaft (a53), an extension cavity (a54), a mounting block (a55), a mounting body (a56), and a deflection block (a57). A mounting block (a55) is provided on the mounting body (a56). The pusher (a51) is movably connected to the mounting plate (a52). The extension shaft (a53) is provided inside the extension cavity (a54). The mounting body (a56) is movably connected to the deflection block (a57). The mounting plate (a52) is provided on the assembly block (a6). The deflection block (a57) is an arc connection block, and an arc cavity is provided on the deflection block (a57). The pusher (a51) is provided with a snap block (511), a snap plate (512), a displacement shaft (513), an operation tube (514), a combined cavity (515), a push plate (516), and a displacement block (517). An operation tube (514) is provided at the central position of the combined cavity (515). The snap block (511) is in clearance fit with the snap plate (512). The push plate (516) is provided on the combined cavity (515). The displacement block (517) is slidably connected to the displacement shaft (513). The operation tube (514) is installed on the mounting body (a56). An activity cavity is provided on the snap plate (512), a sliding notch is provided on the snap plate (512), and an activity block is provided on the snap block (511). The processor (a1) is provided with a clamping plate (a11), a clamping block (a12), a processing shaft (a13), an adjusting tube (a14), a processing block (a15), a processing channel (a16), and a body (a17). The processing block (a15) is installed on the processing shaft (a13). The processing channel (a16) is movably connected to the body (a17). The adjusting tube (a14) is provided on the body (a17). The clamping block (a12) is in clearance fit with the clamping plate (a11). The body (a17) is installed on the assembly block (a6). When dispensing the aquaculture liquid medicine, the liquid medicine is loaded into the internal of the combination cavity (515). The liquid medicine is guided through the operation tube (514) into the installation block (a55), the assembly snap plate (512) and the push plate (516). The notch of the push plate (516) calibrates the displacement shaft (513) and snaps into the combination cavity (515). The snap plate (512) is calibrated with the displacement block (517), and the snap block (511) is pushed. The snap block (511) extends out from the movable cavity of the snap plate (512) and snaps into the snap groove of the displacement block (517). By passing a bolt through the threaded groove on the connecting plate of the snap block (511), the connection between the snap plate (512) and the displacement block (517) is realized. The displacement block (517) slides on the displacement shaft (513) to push the push plate (516) to extrude the liquid medicine. By the extrusion of the push plate (516), the liquid medicine is sprayed out from the installation block (a55). The installation block (a55) is a hemispherical connecting block, and the arc surface structure increases the spray angle of the liquid, thus expanding the spraying range of the liquid medicine. The extension shaft (a53) on one side of the installation plate (a52) slides on the extension cavity (a54), causing a height difference between the extension shafts (a53) connected to both sides of the installation plate (a52). The extension shaft (a53) deflects on the deflection block (a57), thereby realizing the inclination of the installation body (a56). When the installation body (a56) is inclined, it will involve the operation tube (514) so that the installation block (a55) sprays towards the inclined end, expanding the spraying area. The movable shaft of the installation block (a55) rotates on the rotation slide rail of the installation body (a56), and the liquid medicine can be swung for spraying. The moving block (a3) slides along the moving track (a4) to drive the liquid dispenser (a5) to move, further expanding the range where the liquid dispenser (a5) can dispense. The assembly block (a6) rotates by means of a movable shaft connected to the movable block (a3), causing the processing block (a15) to face the orifice of the housing (a2). The processing block (a15) rotates along the processing shaft (a13) to unfold the processing block (a15), drill holes in the velvet tape, snap the holes of the velvet tape onto the columns of the clamping plate (a11), then install the clamping block (a12), and rotate the movable shaft on the clamping block (a12) to screw the knob of the movable shaft of the clamping block (a12) onto the annular threaded groove of the clamping plate (a11), clamping the velvet tape between the clamping block (a12) and the clamping plate (a11). After the velvet tape is assembled, the processing block (a15) turns towards the culture liquid, and the processing block (a15) closes to form a hemispherical feeding cavity for feeding. The feed is input through the connection hole of the assembly block (a6) and guided by the regulating pipe (a14). When the feeding is almost complete, the slider of the processing shaft (a13) slides on the processing track (a16) to widen the orifice between the processing blocks (a15). The processing block (a15) rotates along the processing shaft (a13) by means of the movable shaft to fully unfold the feeding cavity, allowing the remaining accumulated feed to fall onto the culture liquid. When the management system dispenses the liquid medicine, the movable rod connected to the device body (a17) slides within the movable column of the assembly block (a6), driving the processor (a1) to move towards one side of the assembly block (a6). When the device body (a17) moves, the hollow connecting pipe of the regulating pipe (a14) moves inside the assembled connecting pipe of the regulating pipe (a14), thereby realizing the adjustment of the position of the processor (a1). A height difference in movement is generated between the processor (a1) and the liquid dispenser (a5). When the liquid dispenser (a5) sprays the liquid medicine, the liquid medicine will not easily splash onto the velvet tape of the processor (a1).

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