Intelligent full-automatic float adjusting electronic float

Abstract

The utility model relates to the field of electronic floats, in particular to an intelligent full-automatic float-adjusting electronic float which comprises a float tail, a float body and a wire locking mechanism, a ground wire terminal is fixedly connected to the bottom end of the float tail, the float body and the wire locking mechanism are of a split structure, the bottom of the float tail vertically penetrates through an inner hole of the ground wire terminal, and the ground wire terminal is vertically installed at the upper end of the float body. The bottom of the ground wire terminal is electrically connected with the circuit board, the top of the float tail is provided with a signal detection terminal, and the signal detection terminal is a signal acquisition point of the circuit board and is also a gain antenna of the star flash communication module or the Bluetooth communication module. Through the arrangement of the line locking mechanism, line locking and line releasing can be conducted on the main line, meanwhile, accurate float adjustment can be achieved in a wireless control mode, automatic line releasing and resetting are achieved, float adjustment is not needed, and brightness adjustment and eye changing of a light-emitting component in the float tail do not need to be controlled.

Description

Technical Field

[0001] This utility model relates to the field of electronic floats, specifically to an intelligent fully automatic electronic float. Background Technology

[0002] A fishing float is a tool used to indicate when a fish bites the hook. People judge the fish's feeding behavior by observing the float's movements, and thus decide when to lift the rod. Therefore, the float is a crucial element in determining the success of a fishing trip. A fishing float mainly consists of three parts: the float tip, the float body, and the float stem.

[0003] In the process of learning to fish, besides observing and finding suitable fishing spots, adjusting the float is also a key way to find fish. In daily life, most float adjustments are achieved by using two magnets to clamp the main line to achieve automatic float adjustment. However, this method often results in an overly large and heavy float, which greatly reduces the float's sensitivity, making it inaccurate in finding the bottom and unsuitable for complex natural waters.

[0004] When people fish at night, they need to turn on the light-emitting components inside the float. Currently, most floats have fixed brightness and cannot be adjusted. Since everyone's eyesight and the distance at which they can see clearly are different, the current floats cannot meet the needs of different people and need to be improved.

[0005] Based on this, those skilled in the art have provided an intelligent, fully automatic electronic drift adjustment system to solve the problems mentioned above. Utility Model Content

[0006] To solve the above-mentioned technical problems, this utility model provides an intelligent fully automatic electronic float, including a float tail, a float body, and a line locking mechanism. A ground terminal is fixedly connected to the bottom of the float tail. The float body and the line locking mechanism are separate structures, and the two are connected by a threaded structure.

[0007] The bottom of the float tip is vertically inserted through the inner hole of the ground terminal. The ground terminal is made of metal conductor material and is gold-plated. The ground terminal is vertically installed on the upper end of the float body. The bottom of the ground terminal is electrically connected to the circuit board. The top of the float tip is equipped with a signal detection terminal. The signal detection terminal is made of metal conductor material and is gold-plated. The signal detection terminal is the signal acquisition point of the circuit board. The signal detection terminal is electrically connected to the circuit board located inside the float body through a wire.

[0008] The float's interior contains wire 1, wire 2, wire 3, wire 4, wire 5, and LED light strip 1 and LED light strip 2. Each of LED light strip 1 and LED light strip 2 has two sets of forward and reverse LEDs. LED light strip 1 is electrically connected to wire 1 and wire 2; LED light strip 2 is electrically connected to wire 4 and wire 5. The ends of wires 1, 2, 4, and 5 near the ground terminal are all electrically connected to a circuit board located inside the float.

[0009] The circuit board has power supply positive and negative spring pins and motor positive and negative spring pins soldered on the outer side of the bottom surface. The circuit board is installed on the top of the battery compartment. The bottom of the battery compartment has internal threads. The inner wall of the battery compartment has a protruding rail. The battery compartment has a pluggable battery installed inside. The battery has a battery shell on the outside. The motor positive and negative wires pass through the outer wall of the battery shell vertically. The outer wall of the battery shell has a groove on one side.

[0010] The battery has a bridging circuit board on its top surface and a motor positive and negative bridging circuit board on its bottom surface. The battery, battery casing, bridging circuit board, motor positive and negative wires, and motor positive and negative bridging circuit board are integrated into one unit. The protruding rails on the inner wall of the battery compartment are installed in the grooves on the outer wall of the battery casing. The top surface of the bridging circuit board is electrically connected to the power supply positive and negative spring pins and the motor positive and negative spring pins. The positive and negative plates of the battery are welded to the center of its bottom surface. The outer side of the bridging circuit board is welded and fixed to the top of the motor positive and negative wires. The top surface of the motor positive and negative bridging circuit board is welded and fixed to the bottom of the motor positive and negative wires. The bottom surface of the motor positive and negative bridging circuit board is electrically connected to the motor bridging spring pins. The motor bridging spring pins penetrate vertically through the middle of the locking mechanism thread. The locking mechanism thread is connected to the floating body thread at the bottom of the battery compartment. A waterproof sealing ring is provided on the outer side of the middle of the locking mechanism thread.

[0011] The locking mechanism includes a motor bridging spring pin, locking mechanism threads, a waterproof sealing ring, a float rod, and a locking device. The top of the float rod is fixedly connected to the lower end of the locking mechanism threads, and the bottom end is fixedly connected to the locking device. The locking device includes a motor housing shell, a motor, a planetary gearbox, a D-shaped drive shaft, an upper bipolar strong magnet, a gasket, a locking shell, a locking figure-eight ring, a lower bipolar strong magnet, and locking feet. The motor and planetary gearbox are designed as a single unit. The upper end of the motor housing shell is fixedly connected to the bottom end of the float rod. The motor and planetary gearbox are fixedly installed inside the motor housing shell. The positive and negative wires of the motor pass vertically through the float rod and are electrically connected to the lower end of the motor bridging spring pin. The output shaft of the planetary gearbox is connected to the D-shaped drive shaft. A gasket is provided at the bottom end of the D-shaped drive shaft. The lower end of the D-shaped drive shaft passes through the middle hole of the upper bipolar strong magnet.

[0012] The upper end of the locking line housing is fixedly connected to the lower end of the motor housing housing. The inside of the locking line housing cavity has grooves on both sides. The locking line housing cavity contains a locking line figure-eight ring. The upper end of the locking line figure-eight ring contains a bipolar strong magnet with the same surface on the lower side. The outer ends of the locking line figure-eight ring have convex rails. The convex rails at the outer ends of the locking line figure-eight ring are installed in the grooves on both sides of the inside of the locking line housing cavity. The lower end of the locking line housing is fixedly connected to a locking line foot. The locking line foot has a vertical hole in the middle. The lower end of the locking line figure-eight ring is installed in the vertical hole in the middle of the locking line foot. The end of the fishing line near the hook passes through and is installed in the bottom ring of the locking line figure-eight ring.

[0013] Preferably, the circuit board comes in three versions, specifically including:

[0014] Version A: Employs Huawei HiSilicon's StarFlash communication module, gyroscope module, LED control module, and motor forward / reverse control module;

[0015] Version B: Employs Bluetooth and WIFI communication modules, gyroscope modules, LED control modules, and motor forward / reverse control modules;

[0016] Version C: Employs a microcontroller module, gyroscope module, LED control module, and motor forward / reverse control module.

[0017] Preferably, when the circuit board is version A: it uses Huawei HiSilicon's Star Flash communication module for programming, and collects data from the gyroscope module to control and detect the potential difference or capacitance difference between the signal detection terminal and the ground terminal on the drift tail;

[0018] To identify the positional status information of the float body and float tip on the water, on the water surface, and underwater;

[0019] It controls the line-locking mechanism to perform line release and locking operations, changing the position of the float body and float tip underwater, on the water surface, and above the water. It automatically adjusts the float after entering the water and automatically releases the line after leaving the water surface.

[0020] Preferably, when the circuit board is version A: it adopts Huawei HiSilicon's Star Flash communication module, which wirelessly connects to a mobile terminal and sends specified information wirelessly through the APP in the mobile terminal; it can realize real-time monitoring of the battery power in the float from 0-600 meters away, adjust the brightness of the LED light strip in the float tip, control the LED light strip to turn on and off, and control the forward and reverse power supply of the LED light strip to achieve color and sight changes; and wirelessly set the parameters, sight adjustment and fishing depth of various fishing methods according to the user's needs.

[0021] Preferably, when the circuit board is version B: the circuit board is programmed using a Bluetooth communication module to collect data from the gyroscope module to control and detect the potential difference or capacitance difference between the signal detection terminal and the ground terminal on the drift tail;

[0022] To identify the positional status information of the float body and float tip on the water, on the water surface, and underwater;

[0023] It controls the line-locking mechanism to perform line release and locking operations, changing the position of the float body and float tip underwater, on the water surface, and above the water. It automatically adjusts the float after entering the water and automatically releases the line after leaving the water surface.

[0024] Preferably, when the circuit board is version B: the circuit board is programmed with a Bluetooth communication module, and after wirelessly connecting to a mobile terminal, it can wirelessly send specified information through the APP in the mobile terminal; it can realize 0-10 meter wireless real-time monitoring of the battery power in the float, adjust the brightness of the LED light strip in the float tail, control the opening and closing of the LED light strip, and control the change of the forward and reverse power supply of the LED light strip to achieve color change and eye change of the LED light-emitting diode.

[0025] Preferably, when the circuit board is version C: the circuit board is programmed with a microcontroller module and uses data from the gyroscope module to control and detect the potential difference or capacitance difference between the signal detection terminal and the ground terminal on the drift tail;

[0026] To identify the positional status information of the float body and float tip on the water, on the water surface, and underwater;

[0027] It controls the line-locking mechanism to perform line release and locking operations, changing the position of the float body and float tip underwater, on the water surface, and above the water. It automatically adjusts the float after entering the water and automatically releases the line after leaving the water surface.

[0028] Preferably, when the circuit board is version C: the circuit board is programmed with a microcontroller module, collects data from the gyroscope module, and controls the LED light strip to be constantly lit when powered on upright; at the same time, the fish bite color-changing function is activated, and the LED light strip is controlled to be constantly lit when powered on upside down; at the same time, the fish bite color-changing function is turned off, and the LED light-emitting diode is controlled to flash when the battery voltage inside the float is low, and the LED light strip is controlled to be constantly off when powered on in a non-upright or non-upside-down state. In this mode, when the battery voltage inside the float is low, the motor is controlled to reverse the line release and the machine is turned off at the same time.

[0029] Preferably, the mobile terminal is a smartphone or tablet computer with an APP program installed. The mobile terminal wirelessly connects to the star flash communication module, Bluetooth communication module, or WIFI communication module in the float body through the APP program to send commands, collect battery power, and collect data when a fish bites the hook using the gyroscope module, and transmits it to the mobile terminal; it is displayed on the mobile terminal and prompts the user in the form of sound or vibration.

[0030] Preferably, the signal detection terminal is the signal detection point of the StarSpark communication module and the Bluetooth module; it is also the gain antenna of the StarSpark communication module and the Bluetooth communication module. The principle is as follows: when the float and float tip enter the water, and the signal detection terminal and ground terminal are submerged, the signal detection terminal is at a low potential due to the conductivity of water. Based on this low potential signal, the StarSpark communication module and the Bluetooth communication module switch the signal detection terminal to their signal acquisition end. When the signal detection terminal leaves the water surface for 3 seconds and the automatic float adjustment is completed and locked, the signal detection terminal is at a high potential. Based on this high potential signal, the StarSpark communication module and the Bluetooth communication module switch the signal detection terminal to their gain antenna.

[0031] The technical effects and advantages of this utility model are as follows:

[0032] 1. This utility model uses a line-locking mechanism to lock and release the main line. Simultaneously, it utilizes a communication module on the circuit board (e.g., StarFlash, Bluetooth, Wi-Fi, or a microcontroller) to program the system. By collecting attitude data from the gyroscope module and data on the potential difference or capacitance difference between the signal detection terminal and the ground terminal, it can detect the float's position underwater, on the surface, and above water. Controlling the line-locking mechanism to lock and release the line allows for precise float adjustment and is suitable for fishing at various depths. When the user lifts the rod and the float leaves the water, it automatically releases and resets the line, eliminating the need for float adjustment. The use of two magnets simplifies the structure, solves the problem of line tangling on the float, and significantly improves the waterproof rating.

[0033] 2. In this utility model, a mobile terminal is wirelessly connected to the star flash communication module or Bluetooth / WIFI communication module on the circuit board inside the float body to wirelessly control the brightness adjustment and change of the light-emitting components in the float tail, as well as the fishing depth.

[0034] 3. The overall structure of this utility model is simple and easy to operate, which greatly improves the sensitivity of the fishing float. It is suitable for various fishing methods such as platform fishing, traditional fishing, jigging, raft fishing, grain and wheat rod fishing, and long-distance casting with surf rods. It is applicable to fishing in various water conditions, thus greatly improving its practicality based on existing technology. Attached Figure Description

[0035] Figure 1 This is a schematic diagram of the structure of an intelligent fully automatic electronic float provided in an embodiment of this application. Figure 1 ;

[0036] Figure 2 This is a schematic diagram of the structure of an intelligent fully automatic electronic float provided in an embodiment of this application. Figure 2 ;

[0037] Figure 3This is a schematic diagram of the internal structure of the float body in an intelligent fully automatic electronic float provided in this application embodiment;

[0038] Figure 4 This is a cross-sectional view of the float body in an intelligent fully automatic electronic float provided in an embodiment of this application;

[0039] Figure 5 This is a cross-sectional view of the locking mechanism in an intelligent fully automatic electronic drifter provided in an embodiment of this application;

[0040] Figure 6 This is a schematic diagram of the internal structure of the float tail in an intelligent fully automatic electronic float provided in this application embodiment;

[0041] Figure 7 This application provides an intelligent fully automatic electronic float adjustment method. Figure 6 A schematic diagram of the structure at point A in the middle.

[0042] In the picture:

[0043] 1. Drift tail; 2. Drift body; 3. Wire locking mechanism; 4. Signal detection terminal; 5. Ground terminal; 6. Wire 1; 7. Wire 2; 8. Wire 3; 9. Wire 4; 10. Wire 5; 11. Circuit board; 12. Power supply positive and negative spring pins; 13. Motor positive and negative spring pins; 14. Battery compartment; 15. Battery; 16. Bridging circuit board; 17. Motor positive and negative wires; 18. Motor positive and negative bridging circuit board; 19. Motor bridging 20. Spring pin; 21. Threaded locking mechanism thread; 22. Waterproof sealing ring; 23. Floating foot rod; 24. Threaded locking device; 25. Motor housing shell; 26. Motor; 27. Planetary gearbox; 28. D-shaped drive shaft; 29. ​​Upper same-plane bipolar strong magnet; 30. Gasket; 31. Threaded locking shell; 32. Threaded locking figure-eight ring; 33. Lower same-plane bipolar strong magnet; 34. Threaded locking foot; 35. LED light strip one; 36. LED light strip two. Detailed Implementation

[0044] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments. The embodiments of the present invention are given for illustrative and descriptive purposes only, and are not intended to be exhaustive or to limit the present invention to the disclosed forms. Many modifications and variations will be apparent to those skilled in the art. The embodiments were chosen and described to better illustrate the principles and practical applications of the present invention, and to enable those skilled in the art to understand the present invention and design various embodiments with various modifications suitable for a particular purpose.

[0045] Example

[0046] Please see Figures 1 to 7In this embodiment, an intelligent fully automatic electronic float is provided, including a float tail 1, a float body 2, and a locking mechanism 3. The outer shells of the float body 2 and the locking mechanism 3 are made of materials such as nano foam and reeds, and are wrapped with carbon material. The bottom end of the float tail 1 is fixedly connected to a ground terminal 5. The float body 2 and the locking mechanism 3 are separate structures, and the two are connected by a threaded structure.

[0047] The bottom of the float 1 is vertically penetrated by the inner hole of the ground terminal 5. The ground terminal 5 is made of metal conductor material and is gold-plated. The ground terminal 5 is vertically installed on the upper end of the float body 2. The bottom of the ground terminal 5 is electrically connected to the circuit board 11. The top of the float 1 is provided with a signal detection terminal 4. The signal detection terminal 4 is made of metal conductor material and is gold-plated. The signal detection terminal 4 is the signal acquisition point of the circuit board 11 and also the gain antenna of the star flash communication module or Bluetooth communication module. The signal detection terminal 4 is electrically connected to the circuit board 11 located inside the float body 2 through the wire 8.

[0048] The float 1 is internally equipped with wire 6, wire 7, wire 8, wire 9, wire 5, and LED light strip 34 and LED light strip 35. Each of LED light strip 34 and LED light strip 35 is equipped with two sets of forward and reverse LEDs. LED light strip 34 is electrically connected to wire 6 and wire 7; LED light strip 35 is electrically connected to wire 9 and wire 10. The ends of wires 6, 7, 9, and 10 near the ground terminal 5 are all electrically connected to the circuit board 11 located inside the float 2.

[0049] The power supply positive and negative spring pins 12 and the motor positive and negative spring pins 13 are soldered on the outer side of the bottom surface of the circuit board 11. The circuit board 11 is installed on the top of the battery compartment 14. The bottom end of the battery compartment 14 is provided with internal threads. A protruding rail is provided on one side of the inner wall of the battery compartment 14. A pluggable battery 15 is installed inside the battery compartment 14. A battery shell is provided on the outside of the battery 15. The motor positive and negative wires 17 pass vertically through the outer wall of the battery shell. A groove is provided on one side of the outer wall of the battery shell of the battery 15.

[0050] A bridging circuit board 16 is provided on the top surface of the battery 15, and a motor positive and negative bridging circuit board 18 is provided on its bottom surface. The battery 15, battery casing, bridging circuit board 16, motor positive and negative wires 17, and motor positive and negative bridging circuit board 18 are integrated into one unit. The protruding rails on the inner wall of the battery compartment 14 are correspondingly installed in the grooves on the outer wall of the battery casing 15. The top surface of the bridging circuit board 16 is electrically connected to the power supply positive and negative spring pins 12 and the motor positive and negative spring pins 13, and the positive and negative plates of the battery 15 are welded to the center of its bottom surface. The outer side of the bridging circuit board 16 is welded and fixed to the top of the positive and negative motor wires 17. The top surface of the positive and negative motor bridging circuit board 18 is welded and fixed to the bottom of the positive and negative motor wires 17. The bottom surface of the positive and negative motor bridging circuit board 18 is electrically connected to the motor bridging spring pin 19. The motor bridging spring pin 19 vertically penetrates the middle of the locking mechanism thread 20. The locking mechanism thread 20 is connected to the floating body thread at the bottom of the battery compartment 14 through the thread. A waterproof sealing ring 21 is provided on the outer side of the middle of the locking mechanism thread 20.

[0051] The wire-locking mechanism 3 includes a motor bridging spring pin 19, a wire-locking mechanism thread 20, a waterproof sealing ring 21, a float rod 22, and a wire-locking device 23. The top end of the float rod 22 is fixedly connected to the lower end of the wire-locking mechanism thread 20, and the bottom end is fixedly connected to the wire-locking device 23. The wire-locking device 23 includes a motor housing shell 24, a motor 25, a planetary gearbox 26, a D-shaped drive shaft 27, an upper bipolar strong magnet with the same surface 28, a gasket 29, a wire-locking shell 30, a wire-locking figure-eight ring 31, a lower bipolar strong magnet with the same surface 32, and a wire-locking foot 33. The upper end of the motor housing shell 24 is fixedly connected to the bottom end of the float rod 22. The motor 25 and planetary gearbox 26 are fixedly installed inside the motor housing shell 24. The motor 25 and planetary gearbox 26 are designed as a whole. The positive and negative wires of the motor 25 pass vertically through the float rod 22 and are electrically connected to the lower end of the motor bridging spring pin 19. The output shaft of the planetary gearbox 26 is connected to the D-shaped drive shaft 27. The bottom end of the D-shaped drive shaft 27 is provided with a gasket 29. The lower end of the D-shaped drive shaft 27 passes vertically through the inner hole of the upper bipolar strong magnet 28.

[0052] The upper end of the locking line housing 30 is fixedly connected to the lower end of the motor housing housing 24. The inside of the locking line housing 30 has grooves on both sides. The locking line housing 30 has a locking line figure-eight ring 31 inside. The upper end of the locking line figure-eight ring 31 has a bipolar strong magnet 32 ​​with the same lower surface inside. The outer ends of the locking line figure-eight ring 31 have convex rails. The convex rails at the outer ends of the locking line figure-eight ring 31 are installed in the grooves on both sides inside the locking line housing 30. The lower end of the locking line housing 30 is fixedly connected to a locking line foot 33. The locking line foot 33 has a vertical hole in the middle. The lower end of the locking line figure-eight ring 31 is installed in the vertical hole in the middle of the locking line foot 33. The end of the fishing line near the hook is installed through the bottom ring of the locking line figure-eight ring 31.

[0053] By controlling the motor 25 to rotate 180 degrees forward and backward, the upper bipolar strong magnet 28 is driven to switch the vertical positions of the S and N poles, thereby controlling the up and down movement of the lower bipolar strong magnet 32 ​​and the locking line figure-eight ring 31; this allows the fishing line in the lower ring of the locking line figure-eight ring 31 to be pulled into and pushed out of the vertical hole in the middle of the locking line foot 33, thus achieving the locking and releasing of the line.

[0054] In this utility model, the circuit board 11 is divided into three versions, the specific versions are as follows:

[0055] Version A: Employs Huawei HiSilicon's StarFlash communication module, gyroscope module, LED control module, and motor forward / reverse control module;

[0056] The circuit board 11 is programmed using Huawei HiSilicon's StarFlash communication module. It collects data from the gyroscope module to control and detect the potential difference or capacitance difference between the signal detection terminal 4 and the ground terminal 5 on the float tip 1. This is used to identify the positional information of the float body 2 and float tip 1 on the water surface and underwater. It is used to control the line locking mechanism 3 to perform line release and line locking operations, changing the positional status of the float body 2 and float tip 1 underwater, on the water surface and above the water, thereby achieving automatic float adjustment after entering the water and automatic line release after leaving the water surface.

[0057] Furthermore, by adopting Huawei HiSilicon's StarFlash communication module, after wirelessly connecting to a mobile terminal, designated information can be wirelessly transmitted via an app within the mobile terminal; enabling real-time monitoring of the float's battery power from 0 to 600 meters away, adjusting the brightness of the LED light strip inside the float tip, controlling the LED light strip to turn on and off, and controlling the forward and reverse power supply methods of the LED light strip to achieve color and depth changes; and wirelessly setting parameters, depth adjustments, and fishing depth for various fishing methods according to the user's needs.

[0058] Version B: Employs Bluetooth and WIFI communication modules, gyroscope modules, LED control modules, and motor forward / reverse control modules;

[0059] The circuit board 11 is programmed using a Bluetooth communication module to collect data from the gyroscope module to control and detect the potential difference or capacitance difference between the signal detection terminal 4 and the ground terminal 5 on the float tip 1; to identify the positional information of the float body 2 and float tip 1 above, below, and above the water; and to control the line locking mechanism 3 to perform line release and line locking operations, changing the positional status of the float body 2 and float tip 1 below, below, and above the water, thereby achieving automatic float adjustment after entering the water and automatic line release after leaving the water.

[0060] Furthermore, the circuit board 11 is programmed with a Bluetooth communication module. After wirelessly connecting to a mobile terminal, it can wirelessly send specified information through the APP in the mobile terminal; realize 0-10 meter wireless real-time monitoring of the battery power inside the float, adjust the brightness of the LED light strip inside the float tail 1, control the opening and closing of the LED light strip, and control the change of the forward and reverse power supply mode of the LED light strip; realize the color change and eye size change of the LED light-emitting diode.

[0061] It should be noted that signal detection terminal 4 is both the signal detection point and the gain antenna of the StarShine Communication Module and Bluetooth Module. The principle is as follows: When the float body 2 and float tail 1 enter the water, and signal detection terminal 4 and ground terminal 5 are submerged, signal detection terminal 4 is at a low potential due to the conductivity of water. Based on this low potential signal, the StarShine Communication Module and Bluetooth Module switch signal detection terminal 4 as their signal acquisition end. When signal detection terminal 4 leaves the water surface for 3 seconds and automatic float adjustment is completed and locked, signal detection terminal 4 becomes at a high potential. Based on this high potential signal, the StarShine Communication Module and Bluetooth Module switch signal detection terminal 4 as their gain antenna.

[0062] Version C: Employs a microcontroller module, gyroscope module, LED control module, and motor forward / reverse control module;

[0063] The circuit board 11 is programmed with a single-chip microcomputer module to collect data from the gyroscope module to control and detect the potential difference or capacitance difference between the signal detection terminal 4 and the ground terminal 5 on the float tip 1; to identify the positional information of the float body 2 and float tip 1 above, below, and above the water; and to control the line locking mechanism 3 to perform line release and line locking operations, thereby changing the positional status of the float body 2 and float tip 1 below, below, and above the water, thus achieving automatic float adjustment after entering the water and automatic line release after leaving the water.

[0064] Furthermore, the circuit board 11 is programmed with a microcontroller module to collect data from the gyroscope module. When powered on upright, it controls the LED light strip to be constantly lit; at the same time, it activates the fish bite color-changing function. When powered on upside down, it controls the LED light strip to be constantly lit; at the same time, it deactivates the fish bite color-changing function. When the battery voltage inside the float is low, it controls the LED light-emitting diode to flash. When powered on in a non-upright or non-upside-down state, it controls the LED light strip to be constantly off. In this mode, when the battery voltage inside the float is low, it controls the motor to reverse the direction of the line release and simultaneously shuts down the machine.

[0065] The mobile terminal is a smartphone or tablet computer with an APP installed. The mobile terminal wirelessly connects to the star flash communication module, Bluetooth communication module or WIFI communication module in the float body 2 through the APP to send commands, collect battery power, and collect data when a fish bites the hook using the gyroscope module, and transmits it to the mobile terminal; it is displayed on the mobile terminal and prompts the user in the form of sound or vibration.

[0066] The automatic float adjustment electronic float system of this utility model describes the automatic float adjustment and automatic line release process in detail according to the set program during automatic float adjustment:

[0067] Power-on self-test reset: When the user inserts battery 15 into float body 2 and the threads of float body are aligned with the threads of locking mechanism 20, the program controls the two sets of LED light strips (i.e., LED light strip 1 34 and LED light strip 2 35) inside float tail 1 to perform self-tests in turn. After the LED light strip self-test is completed, the self-test program of locking mechanism 3 is entered; the motor 25 is controlled to rotate forward, driving the upper same-plane bipolar strong magnet 28 to rotate 180 degrees forward. At this time, the N and S poles of the upper same-plane bipolar strong magnet 28 rotate 180 degrees forward; vertically aligning with the S and N poles of the lower same-plane bipolar strong magnet 32 ​​(using the principle of like poles repelling each other), the lower same-plane bipolar strong magnet 32... Under the repulsive force of the upper bipolar strong magnet 28, magnet 32 ​​causes the locking loop 31 to move downward, thereby freeing the main wire from the constraint of the vertical through hole of the locking pin 33 (at this time, the wire is released). Then, the motor is controlled to reverse 180 degrees. At this time, the S and N poles of the upper bipolar strong magnet 28 are reversed 180 degrees and vertically aligned with the S and N poles of the lower bipolar strong magnet 32 ​​(using the principle of attraction between opposite poles of magnets). Under the magnetic attraction of the upper bipolar strong magnet 28, the lower bipolar strong magnet 32 ​​causes the locking loop 31 to move upward, thereby pulling the main wire into the vertical through hole of the locking pin 33 (at this time, the wire is locked). The power-on self-test and reset are completed.

[0068] Automatic float adjustment: After self-test and reset, the user casts the float and line into the fishing spot. The float sinks upright in the water under the weight of the sinker. The potential difference between signal detection terminal 4 and ground terminal 5 is detected. Since signal detection terminal 4 and ground terminal 5 are underwater, the conductivity of water is utilized. At this time, signal detection terminal 4 is at a low potential. Based on this low potential, circuit board 11 controls motor 25 to rotate 180 degrees clockwise, causing line locking mechanism 3 to release the line. The float rises. When signal detection terminal 4 leaves the water surface, motor 25 is controlled to rotate 180 degrees counterclockwise, causing line locking mechanism 3 to lock the line. It locks after 3 seconds. If the water is deep at the fishing spot and the sinker does not reach the bottom within 3 seconds, the program will repeat the above float adjustment procedure until the sinker reaches the bottom and the signal detection terminal 4 of the float tip 1 leaves the water surface for 3 seconds before locking. When the user needs to change the bait or a fish bites the hook, the user lifts the rod. At this time, the float leaves the water surface and becomes upside down. When the gyroscope module is detected to be upside down for 1 second, the motor 25 is controlled to reverse so that the locking mechanism 3 releases the line for 3 seconds, so that the float returns to the end close to the hook. Then the motor 25 is controlled to rotate forward so that the locking mechanism 3 locks the line, and the automatic line release is completed. By repeating the above actions according to the program, the fully automatic float adjustment and fully automatic line release can be completed.

[0069] LED Brightness Control, Color Changing, and Marking Instructions: LED Light Strip Brightness Control and LED Light Strip Marking Instructions: This function is only available for the Star Flash Communication and Bluetooth / WIFI communication versions. When a mobile terminal is connected to the Star Flash Communication or Bluetooth / WIFI version inside the float body 2, the user can wirelessly send a command to the Star Flash Communication or Bluetooth / WIFI version inside the float body 2 to change the power supply voltage of the LED light strip, thereby adjusting the LED brightness. When the user needs to fish over long distances, the user can wirelessly send a command to the Star Flash Communication or Bluetooth / WIFI version inside the float body to control one set of LED light strips to turn off, thus lengthening the dark area between two adjacent sets of LEDs and achieving marking changes. (This function can utilize 4 wires and 3 sets of LED light strips connected in series and parallel, and multi-level marking changes and hook bite color changes can be achieved through forward and reverse power supply).

[0070] Obviously, the described embodiments are only a part of the embodiments of this utility model, and not all of them. All other embodiments obtained by those skilled in the art and related fields based on the embodiments of this utility model without creative effort should fall within the protection scope of this utility model. Structures, devices, and operating methods not specifically described and explained in this utility model, unless otherwise specified or limited, shall be implemented according to conventional means in the art.

Claims

1. A smart full-automatic drift adjusting electronic drift, characterized in that, It includes a floating tail (1), a floating body (2), and a wire locking mechanism (3). The floating tail (1) is fixedly connected with a ground terminal (5) at the bottom end. The floating body (2) and the wire locking mechanism (3) are in a split structure and are connected through a screw thread structure. The floating tail (1) vertically penetrates the inner hole of the ground terminal (5) at the bottom. The ground terminal (5) is made of a metal conductor material and is gold-plated on the surface. The ground terminal (5) is vertically installed on the upper end of the floating body (2). The bottom of the ground terminal (5) is electrically connected with a circuit board (11). The top of the floating tail (1) is provided with a signal detection terminal (4). The signal detection terminal (4) is made of a metal conductor material and is gold-plated on the surface. The signal detection terminal (4) is a signal collection point of the circuit board (11). The signal detection terminal (4) is electrically connected with the circuit board (11) in the floating body (2) through a wire three (8). The floating tail (1) is internally provided with a wire one (6), a wire two (7), a wire three (8), a wire four (9), a wire five (10), and LED light bars one (34) and two (35). Each of the LED light bars one (34) and two (35) is provided with two groups of forward and reverse LED light-emitting diodes. The LED light bar one (34) is electrically connected with the wire one (6) and the wire two (7). The LED light bar two (35) is electrically connected with the wire four (9) and the wire five (10). One end of each of the wire one (6), the wire two (7), the wire four (9), and the wire five (10) near the ground terminal (5) is electrically connected with the circuit board (11) in the floating body (2). The circuit board (11) is externally welded with positive and negative spring pins (12) of a power supply and positive and negative spring pins (13) of a motor at the bottom. The circuit board (11) is installed on the top of a battery compartment (14). The bottom end of the battery compartment (14) is provided with an internal screw thread of the floating body. One side of the inner wall of the battery compartment (14) is provided with a convex rail. The battery compartment (14) is internally installed with a pluggable battery (15). The battery (15) is externally provided with a battery shell. Positive and negative motor wires (17) vertically penetrate the outer wall of the battery shell. One side of the outer wall of the battery shell externally of the battery (15) is provided with a groove. The top surface of the battery (15) is provided with a bridging circuit board (16), and the bottom surface is provided with a motor positive and negative electrode bridging circuit board (18). The battery (15) is designed in one body with the battery shell, the bridging circuit board (16), the motor positive and negative electrode lead (17), and the motor positive and negative electrode bridging circuit board (18). The inner wall convex rail of the battery cabin (14) is installed in the outer wall groove of the battery (15) shell. The top surface of the bridging circuit board (16) is in contact with the positive and negative electrode spring contact pins (12) and the motor positive and negative electrode spring contact pins (13). The bottom surface center of the bridging circuit board (16) is welded with the positive and negative electrode sheets of the battery (15). The outer side of the bridging circuit board (16) is welded and fixed with the top end of the motor positive and negative electrode lead (17). The top surface of the motor positive and negative electrode bridging circuit board (18) is welded and fixed with the bottom end of the motor positive and negative electrode lead (17). The bottom surface of the motor positive and negative electrode bridging circuit board (18) is in contact with the motor bridging spring contact pin (19). The motor bridging spring contact pin (19) vertically penetrates the middle part of the lock line mechanism screw thread (20). The lock line mechanism screw thread (20) is connected with the floating screw thread at the bottom end of the battery cabin (14) through the screw thread. The outer side of the middle part of the lock line mechanism screw thread (20) is provided with a waterproof sealing ring (21). The lock line mechanism (3) comprises the motor bridging spring contact pin (19), the lock line mechanism screw thread (20), the waterproof sealing ring (21), the floating leg rod (22), and the lock line device (23). The top end of the floating leg rod (22) is fixedly connected with the lower end of the lock line mechanism screw thread (20), and the bottom end is fixedly connected with the lock line device (23).

2. The intelligent full-automatic drift adjusting electronic drift according to claim 1, characterized in that, The lock line device (23) comprises a motor cabin body shell (24), a motor (25), a planetary gear box (26), a D-shaped transmission shaft (27), an upper same surface double-polarity strong magnet (28), a gasket (29), a lock line shell (30), a lock line eight-character ring (31), a lower same surface double-polarity strong magnet (32), and a lock line leg (33). The motor (25) and the planetary gear box (26) are designed in one body. The upper end of the motor cabin body shell (24) is fixedly connected with the bottom end of the floating leg rod (22). The motor (25) and the planetary gear box (26) are fixedly installed in the motor cabin body shell (24). The positive and negative electrode leads of the motor (25) vertically penetrate the floating leg rod (22) and are electrically connected with the lower end of the motor bridging spring contact pin (19). The output shaft of the planetary gear box (26) is connected with the D-shaped transmission shaft (27). The bottom end of the D-shaped transmission shaft (27) is provided with the gasket (29). The lower end of the D-shaped transmission shaft (27) penetrates the middle hole of the upper same surface double-polarity strong magnet (28). The lower end of the lock line shell (30) is fixedly connected with the motor cabin shell (24), the two sides of the cavity of the lock line shell (30) are provided with grooves, the lock line eight-shaped ring (31) is arranged in the cavity of the lock line shell (30), the lower end of the lock line eight-shaped ring (31) is provided with a same polarity strong magnet (32), the two ends of the lock line eight-shaped ring (31) are provided with convex rails, the convex rails of the two ends of the lock line eight-shaped ring (31) are arranged in the grooves of the two sides of the cavity of the lock line shell (30), the lower end of the lock line shell (30) is fixedly connected with a lock line foot (33), the middle of the lock line foot (33) is vertically provided with a hole, the lower end of the lock line eight-shaped ring (31) is arranged in the hole, and the end of the fishing line close to the fishing hook is arranged in the ring at the bottom of the lock line eight-shaped ring (31).

3. The intelligent full-automatic drift adjusting electronic drift according to claim 1, characterized in that, The circuit board (11) is divided into three versions, and specifically includes: Version A: using Huawei HiSilicon star flash communication module, gyroscope module, LED control module, motor forward and reverse control module; Version B: using Bluetooth, WIFI communication module, gyroscope module, LED control module, motor forward and reverse control module; Version C: using single-chip microcomputer module, gyroscope module, LED control module, motor forward and reverse control module.

4. The intelligent full-automatic drift adjusting electronic drift according to claim 3, characterized in that, When the circuit board (11) is version A: using the star flash communication module of Huawei HiSilicon, the data of the gyroscope module is collected to control and detect the potential difference or the capacitance difference between the signal detection terminal (4) and the ground terminal (5) on the tail (1) in the form of a float (2). To identify the position state information data of the float (2) and the tail (1) on the water, the water surface and the underwater. To control the lock line mechanism (3) to perform the line releasing and locking operation, change the position state of the float (2) and the tail (1) on the water, the water surface and the underwater, automatically adjust the float after entering the water, and automatically release the line after leaving the water surface. When the circuit board (11) is version A: using the star flash communication module of Huawei HiSilicon, after being wirelessly connected with a mobile terminal, the specified parameters are wirelessly sent through the APP in the mobile terminal.

5. The intelligent full-automatic drift adjusting electronic drift according to claim 3, characterized in that, When the circuit board (11) is version B: the circuit board (11) is programmed by using the Bluetooth communication module, and the data of the gyroscope module is collected to control and detect the potential difference or the capacitance difference between the signal detection terminal (4) and the ground terminal (5) on the tail (1) in the form of a float (2). To identify the position state information data of the float (2) and the tail (1) on the water, the water surface and the underwater. To control the lock line mechanism (3) to perform the line releasing and locking operation, change the position state of the float (2) and the tail (1) on the water, the water surface and the underwater, automatically adjust the float after entering the water, and automatically release the line after leaving the water surface.

6. The intelligent full-automatic drift adjusting electronic drift according to claim 5, characterized in that, When the circuit board (11) is version B: the circuit board (11) is programmed with a Bluetooth communication module, after being wirelessly connected with a mobile terminal, the specified signal is sent wirelessly through the APP in the mobile terminal; 0-10 meters of wireless real-time monitoring of the battery power in the float, adjusting the brightness of the LED light bar in the float tail (1), controlling the opening and closing of the LED light bar, and controlling the change of the forward and reverse power supply of the LED light bar to realize the color change and color change of the LED light-emitting diode.

7. The intelligent full-automatic drift adjusting electronic drift according to claim 3, characterized in that, When the circuit board (11) is version C: the circuit board (11) is programmed with a single-chip microcomputer module, and the data of the gyroscope module is collected to control and detect the potential difference or capacitance difference between the signal detection terminal (4) and the ground terminal (5) on the float tail (1); to identify the position state information data of the float body (2) and the float tail (1) on the water, the water surface and underwater; to control the locking mechanism (3) to release the line and lock the line, change the position state of the float body (2) and the float tail (1) underwater, on the water surface and on the water, and automatically adjust the float after entering the water. After leaving the water surface, the line is automatically released.

8. The intelligent full-automatic drift adjusting electronic drift according to claim 7, characterized in that, When the circuit board (11) is version C: the circuit board (11) is programmed with a single-chip microcomputer module, and the data of the gyroscope module is collected to control and detect the potential difference or capacitance difference between the signal detection terminal (4) and the ground terminal (5) on the float tail (1); 9. The intelligent full-automatic drift adjusting electronic drift according to claim 4 or 6, characterized in that, The mobile terminal is a smart phone or a tablet computer, and the APP program is installed in the mobile terminal. The mobile terminal sends instructions wirelessly through the APP program to the star flash communication module or the Bluetooth communication module or the WIFI communication module in the float body (2), collects the battery power, and collects the data when the fish hook is used. The gyroscope module transmits to the mobile terminal; the user is prompted on the mobile terminal in the form of sound or vibration.

10. The intelligent full-automatic drift adjusting electronic drift according to claim 4 or 5, characterized in that, The signal detection terminal (4) is the signal detection point of the star flash communication module and the Bluetooth module; it is also the gain antenna of the star flash communication module and the Bluetooth communication module, and its principle is: Through the program control, when the float body (2) and the float tail (1) enter the water; the signal detection terminal (4) and the ground terminal (5) are in the water; due to the conductivity of water, the signal detection terminal (4) is low potential, and the star flash communication module and the Bluetooth communication module switch the signal detection terminal (4) to the signal collection end of the star flash communication module and the Bluetooth communication module according to the low potential signal; when the signal detection terminal (4) leaves the water surface for 3 seconds and automatically adjusts the float, locks it; at this time, the signal detection terminal (4) is high potential; the star flash communication module and the Bluetooth communication module switch the signal detection terminal (4) to the gain antenna of the star flash communication module and the Bluetooth communication module according to the high potential signal.

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