Adaptive water level regulating device and method based on quasipaa spinosa breeding pond

Abstract

The application discloses a kind of self-adapting water level regulation and control device and method based on rana spinosa breeding pond, comprising: barrier cover structure;Positioning cylinder structure, including positioning base part and power output part of transmission assembly connected and arranged in positioning base part;Fixed height base structure, corresponding to the inside of fixed height base structure;Regulation and control drainage structure, corresponding to the inside of fixed height base structure, and regulation and control drainage structure is embedded and slidably assembled in fixed height base structure, regulation and control drainage structure and the power output part of transmission fixedly connected assembly connection between positioning cylinder structure is set, and regulation and control drainage structure is sequentially provided with straight-through mouth part, water level regulation and control part and flow rate regulation and control part from top to bottom. Solve the problem that the drainage height position is fixed in the water inlet and outlet system of rana spinosa breeding in the prior art, it is difficult to flexibly regulate water level and drainage rate according to external environment change.

Description

Technical Field

[0001] The present invention relates to the technical field of Rana spinosa breeding, and in particular to an adaptive water level control device and method based on a Rana spinosa breeding pond. Background Art

[0002] In recent years, the aquaculture of spiny-chested frogs has gradually emerged as a key sector of economic development. However, due to the unique living habits of spiny-chested frogs, certain technical challenges remain. These frogs have high environmental requirements for growth, and their aquaculture sites must be designed and constructed according to their different growth and development stages and breeding characteristics. In particular, water inlet and drainage systems must be installed to maintain year-round water flow.

[0003] In existing technology, frog ponds typically include tadpole ponds, juvenile frog ponds, and adult frog ponds. To provide a more natural ecological environment, each group of frog ponds is equipped with a dedicated water area with inlet and outlet functions to adjust the water level for different breeding groups. However, in current inlet and outlet systems, the drainage height is usually set directly by a fixed drainage pipe with a predetermined height. This makes it difficult to flexibly adjust the water level and drainage rate in response to changes in the external environment, which is detrimental to operational management. Summary of the Invention

[0004] To this end, the present invention provides an adaptive water level control device and method based on a spinous chest frog breeding pond to solve the technical problem that in the existing technology, the drainage height position of the water supply and drainage system for spinous chest frog breeding is fixed, making it difficult to flexibly control the water level and drainage rate according to changes in the external environment.

[0005] In order to achieve the above object, the present invention provides the following technical solutions:

[0006] An adaptive water level control device based on a spinous-chest frog breeding pond, comprising:

[0007] Isolation cover structure;

[0008] The positioning cylinder structure includes a positioning base and a power output part connected to the positioning base by a transmission assembly;

[0009] A height-fixing basic structure, correspondingly located on the inner side of the height-fixing basic structure;

[0010] The regulating and draining structure is located at the inner side of the height-fixing basic structure, and the embedded sliding assembly of the regulating and draining structure is arranged on the height-fixing basic structure. The regulating and draining structure is connected to the power output part of the position-adjusting cylinder structure by a transmission fixed assembly, and the regulating and draining structure is provided with a direct discharge outlet, a water level regulating part and a flow rate regulating part in sequence from top to bottom.

[0011] On the basis of the above technical solution, the present invention is further described as follows:

[0012] As a further solution of the present invention, the barrier cover structure includes a cylindrical pipe cover body and a plurality of groups of flow holes evenly arranged between the inner and outer sides of the cylindrical pipe cover body;

[0013] The height-fixing foundation structure and the regulating drainage structure are both configured as cylindrical tubular structures;

[0014] The cylindrical tube-type height-fixing base structure and the cylindrical tube-type regulating and draining structure are respectively fixedly arranged at the inner center portion of the cylindrical pipe cover body, and the cylindrical tube-type regulating and draining structure is embedded in the cylindrical tube-type height-fixing base structure in a sliding manner;

[0015] The positioning base part is fixedly assembled and connected to the top inner wall of the pipe cover body, and the power output part is fixedly assembled and connected to the top end of the regulating and draining structure.

[0016] As a further solution of the present invention, the regulating and draining structure includes a drain pipe body;

[0017] The drain pipe body is configured as a cylindrical tube structure, and the cylindrical tube-type drain pipe body has an embedded sliding assembly configured on the cylindrical tube-type fixed height base structure;

[0018] The direct discharge openings are provided in a plurality of groups, and the plurality of groups of direct discharge openings are respectively opened on the outer side of the upper end of the drain pipe body, and the plurality of groups of direct discharge openings serve as drainage passages for a predetermined water level under normal conditions;

[0019] The water level regulating part is fixedly connected to the drainage pipe body in a closed manner, and the water level regulating part is correspondingly located below several groups of the direct discharge openings. The drainage pipe body slides vertically based on the fixed height basic structure to adjust the heights of several groups of the direct discharge openings.

[0020] As a further solution of the present invention, the flow rate regulating part is configured as a vertically extending long channel-shaped structure, and the flow rate regulating part is provided with several groups, and several groups of the flow rate regulating parts are respectively opened on the outer side of the lower end of the drainage pipe body, and several groups of the flow rate regulating parts are correspondingly located below the water level regulating part. When the water level growth rate in a specific area exceeds the upper limit of the threshold, the several groups of the flow rate regulating parts in the shape of long channels are used to adjust the position according to the preset water level drop rate as the standard to assist drainage until the preset water level is reached.

[0021] As a further embodiment of the present invention, the present invention further comprises:

[0022] An electric control structure is fixedly assembled on the top outer side wall of the pipe cover body;

[0023] The electric control structure includes a mobile power supply and a control module connected by a circuit, the control output end of the control module is connected to the input end of a relay through a circuit, and the output end of the relay is connected to the electrical connection end of the position adjustment cylinder structure through a circuit;

[0024] The float detection mechanism is connected to the control input end of the control module through a circuit. The float detection mechanism monitors the water level status of a specific area in real time. The control module compares the monitored water level status data with the standard water level data of the specific area, and controls the adjustment cylinder structure to specifically drive the main body of the drainage pipe to shift based on the fixed height basic structure to adjust the drainage water level and rate.

[0025] As a further solution of the present invention, the top end of the drainage pipe body is set as a floating plate body. When the positioning cylinder structure and the electric control structure lose power, the drainage pipe body adaptively shifts vertically based on the buoyancy of the water body with the help of the floating plate body.

[0026] A control method of the adaptive water level control device based on a spinous-chest frog breeding pond comprises the following steps:

[0027] Controlling the position adjustment cylinder structure to drive and adjust the drainage structure to be in an initial drainage water level state;

[0028] According to the water level state of the specific breeding area monitored in real time by the floating detection mechanism, when the drainage water level needs to be adjusted to a specific height, the adjustment cylinder structure is continuously controlled to drive the adjustment drainage structure so that the adjustment drainage structure is in the drainage water level state at the specific height;

[0029] Continue to monitor the water level status of the specific breeding area in real time according to the floating detection mechanism, and compare the monitored real-time water level status data with the currently set standard water level data. When the real-time water level status data is higher than the standard water level data, continue to control the adjustment cylinder structure to drive the adjustment drainage structure, so that the adjustment drainage structure is in an auxiliary accelerated drainage water level state until the standard water level is reached.

[0030] As a further solution of the present invention, the control and adjustment cylinder structure drives and adjusts the drainage structure to be in an initial drainage water level state, specifically including:

[0031] The power output part in the positioning cylinder structure is controlled by the electronic control structure to output linear driving energy, and the linear driving energy output by the power output part drives the vertical displacement of the drainage pipe body, so that the bottom edges of several groups of straight discharge openings opened in the drainage pipe body are all kept flush with the top edge of the fixed height foundation structure, thereby achieving the initial drainage water level state based on the specific area.

[0032] As a further solution of the present invention, according to the water level state of the specific breeding area monitored in real time by the floating position detection mechanism, when the drainage water level needs to be adjusted to a specific height, the position adjustment cylinder structure is continuously controlled to drive the drainage structure so that the drainage structure is in a drainage water level state at the specific height, specifically including:

[0033] The power output part in the positioning cylinder structure is controlled by the electronic control structure to continue to output linear driving energy, and the linear driving energy output by the power output part further drives the drainage pipe body to move upward, so that the bottom edges of several groups of straight discharge openings opened in the drainage pipe body are gradually higher than the top edge of the fixed height foundation structure until the drainage water level state of a specific height is reached.

[0034] As a further solution of the present invention, the method further comprises: continuing to monitor the water level status of a specific breeding area in real time according to the floating level detection mechanism, comparing the monitored real-time water level status data with the currently set standard water level data; when the real-time water level status data is higher than the standard water level data, continuing to control the position adjustment cylinder structure to drive the regulating drainage structure, so that the regulating drainage structure is in an auxiliary accelerated drainage water level state until the standard water level is reached. Specifically, the method comprises:

[0035] The real-time water level status of the specific aquaculture area monitored by the floating level detection mechanism is continuously compared with the standard water level data currently set within the vertical range of the direct discharge outlet. When the real-time water level status data is higher than the standard water level data, the power output part in the position adjustment cylinder structure is continuously controlled to output linear driving energy to drive the drainage pipe body upward until the top edges of the plurality of groups of long channel-shaped flow rate control parts provided in the drainage pipe body gradually exceed the top edge of the fixed height foundation structure. At the same time, when the real-time monitored water level is in a gradually decreasing state, the upward driving of the drainage pipe body is stopped.

[0036] At this time, the power output part in the control position adjustment cylinder structure outputs linear drive energy to drive the drain pipe body downward, and keep the top edge of several groups of straight discharge outlets always flush with the gradually decreasing real-time water level, until the top edge of several groups of long channel-shaped flow rate control parts is no higher than the top edge of the fixed height foundation structure, the floating detection mechanism continues to monitor the water level status in real time, and when the real-time monitored water level status rises again, the drain pipe body is driven upward again, and this cycle is repeated until the top edge of several groups of long channel-shaped flow rate control parts is no higher than the top edge of the fixed height foundation structure, the real-time monitored water level status is no longer in a rising state, thereby reaching the standard water level state.

[0037] The present invention has the following beneficial effects:

[0038] The device can effectively monitor the water level status of a specific breeding area in real time through an electric control structure in conjunction with a floating level detection mechanism. At the same time, it can use the electric control structure to compare the monitored water level status data with the pre-stored standard water level data of a specific area, and use this to specifically control the adjustment cylinder structure to drive the drainage structure to flexibly adjust its drainage water level and drainage rate, which is more helpful to improve the overall water level adaptation flexibility of the device when the external environment changes, and the drainage water level and rate can be designed in an integrated structure. BRIEF DESCRIPTION OF THE DRAWINGS

[0039] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for the embodiments or the description of the prior art. The structures, proportions, sizes, etc. illustrated in this specification are only used to match the contents disclosed in the specification for people familiar with this technology to understand and read. Any structural modification, change in proportional relationship or adjustment of size should still fall within the scope of the technical content disclosed in the present invention without affecting the efficacy and purpose that can be achieved by the present invention.

[0040] Figure 1 Schematic diagram of the overall axonometric structure of the adaptive water level control device based on the spinous-chest frog breeding pond provided by an embodiment of the present invention.

[0041] Figure 2 This is a schematic diagram of the internal assembly structure of the barrier cover structure in the adaptive water level control device based on the spinous chest frog breeding pond provided by an embodiment of the present invention.

[0042] Figure 3 The second schematic diagram of the internal assembly structure of the barrier cover structure in the adaptive water level control device based on the spinous chest frog breeding pond provided by an embodiment of the present invention.

[0043] Figure 4 This is a third schematic diagram of the internal assembly structural state of the barrier outer cover structure in the adaptive water level control device based on the spinous chest frog breeding pond provided by an embodiment of the present invention.

[0044] Figure 5 This is a fourth schematic diagram of the internal assembly structural state of the barrier outer cover structure in the adaptive water level control device based on the spinous chest frog breeding pond provided by an embodiment of the present invention.

[0045] In the accompanying drawings, the components represented by the reference numerals are as follows:

[0046] Isolation cover structure 1: pipe cover body 11, diversion hole 12;

[0047] Fixed height basic structure 2;

[0048] Drainage control structure 3: drainage pipe body 31, direct discharge port 32, water level control part 33, flow rate control part 34;

[0049] Positioning cylinder structure 4: positioning base part 41, power output part 42;

[0050] Electrical control structure 5; floating position detection mechanism 6. DETAILED DESCRIPTION

[0051] The following describes the implementation of the present invention using specific embodiments. Those skilled in the art will readily understand the other advantages and benefits of the present invention from the disclosure herein. Obviously, the embodiments described are only a portion of the present invention, not all of it. All other embodiments derived by persons of ordinary skill in the art based on the embodiments of the present invention without inventive effort are intended to fall within the scope of protection of the present invention.

[0052] The terms "upper", "lower", "left", "right", "middle", etc. used in this specification are only for the convenience of description and are not intended to limit the scope of the present invention. Changes or adjustments to their relative relationships should be regarded as within the scope of the present invention without substantially changing the technical content.

[0053] like Figures 1 to 5 As shown, an embodiment of the present invention provides an adaptive water level control device based on a spiny-chested frog breeding pond, comprising a barrier cover structure 1, a height-fixing base structure 2, a control drainage structure 3, a position-adjusting cylinder structure 4, an electric control structure 5, and a floating detection mechanism 6, for effectively and in real time monitoring the water level status of a specific breeding area through the electric control structure 5 in cooperation with the floating detection mechanism 6. At the same time, the electric control structure 5 can be used to compare the monitored water level status data with the pre-stored standard water level data of a specific area, and thereby specifically control the position-adjusting cylinder structure 4 to drive the control drainage structure 3 to flexibly control its drainage water level and drainage rate, which is more helpful to improve the overall water level adaptation flexibility of the device when the external environment changes, and the drainage water level and rate can be designed in an integrated structure, thereby enhancing the overall functional practicality. The specific settings are as follows:

[0054] Please refer to Figure 1 The barrier cover structure 1 includes a cylindrical pipe cover body 11 and a plurality of groups of flow guide holes 12 evenly opened between the inner and outer sides of the cylindrical pipe cover body 11, so as to effectively form a drainage passage corresponding to the fixed height base structure 2 and the regulating drainage structure 3 by utilizing the plurality of flow guide holes 12. The predetermined caliber settings of the plurality of flow guide holes 12 can effectively prevent spinous-chested frogs or tadpoles in a specific area from swimming to the regulating drainage structure 3 and causing loss of living organisms by mistaken drainage. In addition, the pipe cover body 11 can also be used as the structural assembly basis of the positioning cylinder structure 4 and the electronic control structure 5.

[0055] Please refer to Figures 2 to 5 The height-fixing base structure 2 and the regulating drainage structure 3 are both configured as cylindrical tubular structures. The cylindrical tubular height-fixing base structure 2 and the cylindrical tubular regulating drainage structure 3 are respectively fixedly arranged at the inner center part of the cylindrical pipe cover body 11, and the cylindrical tubular regulating drainage structure 3 is embedded in the sliding assembly of the cylindrical tubular height-fixing base structure 2, so as to effectively utilize the height-fixing base structure 2 as the basis for the drainage water level at a predetermined height under normal conditions, and at the same time enable the regulating drainage structure 3 to slide vertically based on the height-fixing base structure 2, and then the drainage water level and drainage rate of the corresponding specific area can be flexibly regulated with the help of the regulating drainage structure 3, which effectively improves the overall water level adaptation flexibility of the device based on changes in the external environment and the overall functional practicality.

[0056] For details, please refer to Figures 2 to 5 The regulating drainage structure 3 includes a drainage pipe body 31, a direct discharge opening 32, a water level regulating part 33 and a flow rate regulating part 34; wherein, the drainage pipe body 31 is configured as a cylindrical tubular structure, and the cylindrical tubular drainage pipe body 31 is embedded in the sliding assembly of the cylindrical tubular height-fixing base structure 2; the direct discharge opening 32 is provided with several groups, and several groups of the direct discharge openings 32 are respectively opened on the outer side of the upper end of the drainage pipe body 31, so as to utilize several groups of direct discharge openings 32 to effectively serve as drainage passages of a predetermined height water level under normal conditions.

[0057] The water level regulating part 33 is fixedly connected to the drainage pipe body 31 in a closed manner, and the water level regulating part 33 is correspondingly located below several groups of the direct discharge openings 32, so as to utilize the drainage pipe body 31 to slide vertically based on the fixed height foundation structure 2, thereby effectively adjusting the heights of several groups of direct discharge openings 32, and further realizing flexible adaptation and regulation of the drainage water level in a specific area.

[0058] The flow rate regulating part 34 is configured as a vertically extending long channel-shaped structure, and the flow rate regulating part 34 is provided with several groups, and several groups of the flow rate regulating parts 34 are respectively opened on the outer side of the lower end of the drainage pipe main body 31, and several groups of the flow rate regulating parts 34 are correspondingly located below the water level regulating part 33. When the water level growth rate in a specific area exceeds the upper limit of the threshold, the several groups of long channel-shaped flow rate regulating parts 34 can be used as the standard to quickly adjust the auxiliary drainage according to the preset water level drop rate until the preset water level is reached, thereby effectively reducing the possibility of water overflowing to the outside of the area.

[0059] Please continue to refer to Figures 2 to 5The positioning cylinder structure 4 includes a positioning base 41 and a power output part 42 which is connected to the positioning base 41 by a transmission assembly; wherein the positioning base 41 is fixedly assembled and connected to the top inner wall of the pipe cover body 11, and the power output part 42 is fixedly assembled and connected to the top end of the drain pipe body 31, so that the linear drive output by the power output part 42 can effectively drive the drain pipe body 31 to complete the vertical displacement control.

[0060] Please continue to refer to Figure 1 The electric control structure 5 is fixedly assembled and arranged on the top outer wall of the pipe cover body 11. Specifically, the electric control structure 5 includes a mobile power supply and a control module connected by a circuit. The mobile power supply can be, but is not limited to, a lithium battery. The control module can be, but is not limited to, a single-chip microcomputer control board of the model AT80C51 or a microcontroller of the model STM32. The control output end of the control module is connected to the input end of the relay through a circuit, and the output end of the relay is connected to the electrical connection end of the position adjustment cylinder structure 4 through a circuit. The float detection mechanism 6 is connected to the control input end of the control module through a circuit. It is used to realize real-time monitoring of the water level status of a specific breeding area according to the float detection mechanism 6. At the same time, the control module can use the monitored water level status data to compare with pre-stored standard water level data of the specific area, and control the position adjustment cylinder structure 4 to specifically drive and adjust the displacement of the drainage pipe body 31 based on the fixed height base structure 2, so as to effectively realize flexible control of the drainage water level and drainage rate, and further help to improve the overall water level adaptability of the device to changes in the external environment.

[0061] As a preferred solution of this embodiment, the top end of the drainage pipe body 31 is set as a floating plate body, so that when the positioning cylinder structure 4 and the electric control structure 5 lose power, the drainage pipe body 31 can still adaptively vertically shift based on the buoyancy of the water body with the help of the floating plate body, thereby ensuring the water level self-adjustment function in the normal state.

[0062] The embodiment of the present invention further provides a control method based on an adaptive water level control device for a spinous-chested frog breeding pond, which specifically includes the following steps:

[0063] S1: Control the adjustment cylinder structure 4 to drive and adjust the drainage structure 3 to be in the initial drainage water level state;

[0064] The specific process is as follows: the power output unit 42 in the position adjustment cylinder structure 4 is controlled by the electric control structure 5 to output linear driving energy, and the linear driving energy output by the power output unit 42 drives the drainage pipe body 31 to vertically shift, so that the bottom edges of the plurality of groups of straight discharge openings 32 provided in the drainage pipe body 31 are all kept flush with the top edge of the fixed height base structure 2, thereby achieving the initial drainage water level state based on the specific area;

[0065] S2: Based on the water level status of the specific breeding area monitored in real time by the floating level detection mechanism 6, when it is necessary to adjust the drainage water level to a specific height, the adjustment cylinder structure 4 is continuously controlled to drive the adjustment drainage structure 3 so that the adjustment drainage structure 3 is in the drainage water level state at the specific height;

[0066] The specific process is as follows: the power output unit 42 in the position adjustment cylinder structure 4 is controlled by the electric control structure 5 to continue to output linear driving energy, and the linear driving energy output by the power output unit 42 further drives the drainage pipe body 31 to shift upward, so that the bottom edges of the plurality of groups of straight discharge openings 32 provided in the drainage pipe body 31 are gradually higher than the top edge of the fixed height base structure 2 until the drainage water level reaches a specific height;

[0067] S3: The real-time water level status data of the specific aquaculture area monitored by the floating level detection mechanism 6 is compared with the currently set standard water level data. When the real-time water level status data is higher than the standard water level data, the position adjustment cylinder structure 4 is continued to drive the drainage structure 3 to make the drainage structure 3 in the auxiliary accelerated drainage state until the standard water level is reached.

[0068] The specific process is as follows: based on the water level status of the specific breeding area monitored in real time by the floating level detection mechanism 6, the monitored real-time water level status data is compared with the currently set standard water level data within the vertical range of the straight discharge opening 32. When the real-time water level status data is higher than the standard water level data, the power output part 42 of the position adjustment cylinder structure 4 is continuously controlled to output linear driving energy to drive the drain pipe body 31 upward until the top edges of the plurality of groups of long channel-shaped flow rate control parts 34 provided in the drain pipe body 31 gradually exceed the top edge of the fixed height base structure 2. At the same time, when the real-time monitored water level is in a gradually decreasing state, the upward driving of the drain pipe body 31 is stopped.

[0069] At this time, the power output part 42 in the control adjustment cylinder structure 4 outputs linear driving energy to drive the drain pipe main body 31 downward, and keeps the top edge of several groups of straight discharge openings 32 always flush with the gradually decreasing real-time water level, until the top edge of several groups of long channel-shaped flow rate control parts 34 is no higher than the top edge of the fixed height foundation structure 2, the floating detection mechanism 6 continues to monitor the water level status in real time, and when the real-time monitored water level status rises again, the drain pipe main body 31 is driven upward again, and this cycle is repeated until the top edge of several groups of long channel-shaped flow rate control parts 34 is no higher than the top edge of the fixed height foundation structure 2, the real-time monitored water level status is no longer in a rising state, thereby reaching the standard water level state.

[0070] Although the present invention has been described in detail above using general descriptions and specific embodiments, it will be apparent to those skilled in the art that modifications and improvements may be made thereto. Therefore, such modifications and improvements, without departing from the spirit of the present invention, are intended to be within the scope of protection claimed herein.

Claims

1. An adaptive water level control device based on a spinous-chest frog breeding pond, characterized in that: include: The barrier cover structure includes a cylindrical cover body; An electric control structure is fixedly assembled on the top outer side wall of the pipe cover body; The positioning cylinder structure includes a positioning base and a power output part connected to the positioning base by a transmission assembly; A height-fixing basic structure, correspondingly located on the inner side of the height-fixing basic structure; The regulating and draining structure is located on the inner side of the height-fixing base structure, and the regulating and draining structure is provided with an embedded sliding assembly on the height-fixing base structure. The regulating and draining structure is connected to the power output part of the position-adjusting cylinder structure by a transmission fixed assembly, and the regulating and draining structure is provided with a direct discharge port, a water level regulating part, and a flow rate regulating part in sequence from top to bottom; The regulating and draining structure includes a drain pipe body; The flow rate control part is configured as a vertically extending long channel-shaped structure, and the flow rate control part is provided with a plurality of groups, and the plurality of groups of flow rate control parts are respectively opened at the outer peripheral side of the lower end of the drainage pipe body, and the plurality of groups of flow rate control parts are correspondingly located below the water level control part. When the water level growth rate in a specific area exceeds the upper threshold value, the plurality of groups of flow rate control parts in the long channel shape are used to adjust the position according to the preset water level drop rate as the standard to assist drainage until the preset water level is reached; The top end of the drainage pipe body is configured as a floating plate body. When the position adjustment cylinder structure and the electric control structure lose power, the drainage pipe body adaptively shifts vertically based on the buoyancy of the water body with the help of the floating plate body.

2. The adaptive water level control device based on the spinous chest frog breeding pond according to claim 1, characterized in that: The barrier cover structure further includes a plurality of groups of flow-conducting holes uniformly arranged between the inner and outer sides of the cylindrical pipe cover body; The height-fixing foundation structure and the regulating drainage structure are both configured as cylindrical tubular structures; The cylindrical tube-type height-fixing base structure and the cylindrical tube-type regulating and draining structure are respectively fixedly arranged at the inner center portion of the cylindrical pipe cover body, and the cylindrical tube-type regulating and draining structure is embedded in the cylindrical tube-type height-fixing base structure in a sliding manner; The positioning base part is fixedly assembled and connected to the top inner wall of the pipe cover body, and the power output part is fixedly assembled and connected to the top end of the regulating and draining structure.

3. The adaptive water level control device based on the spinous chest frog breeding pond according to claim 2, characterized in that: The drain pipe body is configured as a cylindrical tube structure, and the cylindrical tube-type drain pipe body has an embedded sliding assembly configured on the cylindrical tube-type fixed height base structure; The direct discharge openings are provided in a plurality of groups, and the plurality of groups of direct discharge openings are respectively opened on the outer side of the upper end of the drain pipe body, and the plurality of groups of direct discharge openings serve as drainage passages for a predetermined water level under normal conditions; The water level regulating part is fixedly connected to the drainage pipe body in a closed manner, and the water level regulating part is correspondingly located below several groups of the direct discharge openings. The drainage pipe body slides vertically based on the fixed height basic structure to adjust the heights of several groups of the direct discharge openings.

4. The adaptive water level control device based on the spinous chest frog breeding pond according to claim 3 is characterized in that: The electric control structure includes a mobile power supply and a control module connected by a circuit, the control output end of the control module is connected to the input end of a relay through a circuit, and the output end of the relay is connected to the electrical connection end of the position adjustment cylinder structure through a circuit; The float detection mechanism is connected to the control input end of the control module through a circuit. The float detection mechanism monitors the water level status of a specific area in real time. The control module compares the monitored water level status data with the standard water level data of the specific area, and controls the position adjustment cylinder structure to specifically drive the drainage pipe body to shift based on the fixed height basic structure to regulate the drainage water level and rate.

5. A control method for the adaptive water level control device based on the spinous chest frog breeding pond according to claim 4, characterized in that: The steps include: Control the adjustment cylinder structure to drive and adjust the drainage structure to be in the initial drainage water level state; According to the water level state of the specific breeding area monitored in real time by the floating detection mechanism, when the drainage water level needs to be adjusted to a specific height, the adjustment cylinder structure is continuously controlled to drive the adjustment drainage structure so that the adjustment drainage structure is in the drainage water level state at the specific height; Continue to monitor the water level status of the specific breeding area in real time according to the floating detection mechanism, and compare the monitored real-time water level status data with the currently set standard water level data. When the real-time water level status data is higher than the standard water level data, continue to control the adjustment cylinder structure to drive the adjustment drainage structure, so that the adjustment drainage structure is in an auxiliary accelerated drainage water level state until the standard water level is reached.

6. The control method of the adaptive water level control device based on the spinous chest frog breeding pond according to claim 5, characterized in that: The control and adjustment cylinder structure drives and adjusts the drainage structure to be in the initial drainage water level state, specifically including: The power output part in the positioning cylinder structure is controlled by the electronic control structure to output linear driving energy, and the linear driving energy output by the power output part drives the vertical displacement of the drainage pipe body, so that the bottom edges of several groups of straight discharge openings opened in the drainage pipe body are all kept flush with the top edge of the fixed height foundation structure, thereby achieving the initial drainage water level state based on the specific area.

7. The control method of the adaptive water level control device based on the spinous chest frog breeding pond according to claim 6, characterized in that: According to the water level state of the specific breeding area monitored in real time by the floating position detection mechanism, when the drainage water level needs to be adjusted to a specific height, the position adjustment cylinder structure is continuously controlled to drive the drainage structure so that the drainage structure is in a drainage water level state at the specific height, specifically including: The power output part in the positioning cylinder structure is controlled by the electronic control structure to continue to output linear driving energy, and the linear driving energy output by the power output part further drives the drainage pipe body to move upward, so that the bottom edges of several groups of straight discharge openings opened in the drainage pipe body are gradually higher than the top edge of the fixed height foundation structure until the drainage water level state of a specific height is reached.

8. The control method based on the adaptive water level control device of the spinous chest frog breeding pond according to claim 7 is characterized in that: The method continues to monitor the water level status of the specific breeding area in real time according to the floating level detection mechanism, compares the monitored real-time water level status data with the currently set standard water level data, and when the real-time water level status data is higher than the standard water level data, continues to control the adjustment cylinder structure to drive the adjustment drainage structure, so that the adjustment drainage structure is in an auxiliary accelerated drainage water level state until the standard water level is reached, specifically including: The real-time water level status of the specific aquaculture area monitored by the floating level detection mechanism is continuously compared with the standard water level data currently set within the vertical range of the direct discharge outlet. When the real-time water level status data is higher than the standard water level data, the power output part in the position adjustment cylinder structure is continuously controlled to output linear driving energy to drive the drainage pipe body upward until the top edges of the plurality of groups of long channel-shaped flow rate control parts provided in the drainage pipe body gradually exceed the top edge of the fixed height foundation structure. At the same time, when the real-time monitored water level is in a gradually decreasing state, the upward driving of the drainage pipe body is stopped. At this time, the power output part in the control position adjustment cylinder structure outputs linear drive energy to drive the drain pipe body downward, and keep the top edge of several groups of straight discharge outlets always flush with the gradually decreasing real-time water level, until the top edge of several groups of long channel-shaped flow rate control parts is no higher than the top edge of the fixed height foundation structure, the floating detection mechanism continues to monitor the water level status in real time, and when the real-time monitored water level status rises again, the drain pipe body is driven upward again, and this cycle is repeated until the top edge of several groups of long channel-shaped flow rate control parts is no higher than the top edge of the fixed height foundation structure, the real-time monitored water level status is no longer in a rising state, thereby reaching the standard water level state.

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