An intelligent automatic float-adjusting electronic float system

Abstract

The present invention relates to the technical field of fishing floats, and particularly to an intelligent automatic float-adjusting electronic float system. Its technical solution includes: a float tail, a float body, and a wire-locking mechanism; the bottom end of the float tail is fixedly connected to the float body, and the float body and the wire-locking mechanism are of a split structure; they are connected through an upper and lower thread structure. A fishing line is provided below the wire-locking mechanism, and one end of the fishing line is fixedly connected with a lead weight and a fishhook; in this application, the data of the gyroscope module is collected by the controller module inside the float body to control and detect the potential difference or capacitance difference between the signal detection terminal and the ground wire terminal on the float tail; to identify the position state information data of the float body and the float tail on the water surface, on the water, and underwater; to control the wire-locking mechanism to perform wire releasing and wire-locking operations, changing the position states of the float body and the float tail of the fishing float underwater, on the water surface, and on the water, so as to achieve automatic float adjustment after entering the water; and the operation of automatically releasing the fishing line after leaving the water surface, without the need for float adjustment; intelligent automatic float adjustment.

Description

Technical Field

[0001] The present invention relates to the technical field of fishing floats, and specifically to an intelligent automatic float-adjusting electronic float system. Background Technique

[0002] In daily life, fishing, as a leisure activity, is deeply loved by people. During the fishing process, it is often necessary to adjust the position of the float on the fishing line according to the water depth to perform the float-adjusting operation in order to improve the fishing effect.

[0003] Currently, the common bottom-finding and float-adjusting operations are realized by the principle of clamping the main line with two magnets up and down to automatically find the bottom and adjust the float, and moving the space beans on the fishing line to change the position of the float for float adjustment. The former method is likely to result in a large and heavy float body, greatly reducing the sensitivity. The latter method has poor efficiency and is troublesome in repeatedly moving the space beans for float adjustment. The above methods have poor accuracy in bottom-finding and float adjustment and are not suitable for complex natural waters in the wild. Therefore, those skilled in the art have provided an intelligent automatic float-adjusting electronic float system to solve the problems raised in the above background technique. Summary of the Invention

[0004] The purpose of the present invention is to provide an intelligent automatic float-adjusting electronic float system to solve the problems raised in the above background technique.

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

[0006] An intelligent automatic float-adjusting electronic float system includes a float tail, a float body, a wire-locking mechanism, and a charger. A signal detection terminal is provided at the top of the float tail. The signal detection terminal is made of a metal conductor material and its surface is gold-plated. An electrically connected wire is arranged inside the float tail. The signal detection terminal is connected to an LED lamp control board located inside the float body through the electrically connected wire. The bottom end of the float tail is fixedly connected to the float body. A lithium battery is welded in the middle at the bottom of the LED lamp control board. The two sides of the LED control board are electrically connected to a circuit board through four row pins. The lithium battery is located between the LED control board and the circuit board.

[0007] As a further solution of the present invention: The bottom of the circuit board is electrically connected to two motor row pins, a ground wire top pin, and a power-on charging top pin. The two motor row pins vertically penetrate the middle of the float body thread. The two motor row pins are simultaneously electrically connected to a circular circuit board at the bottom of the float body thread. The ground wire top pin and the power-on charging top pin vertically penetrate both sides of the float body thread. Two sealing rings are provided in the horizontal middle section of the float body thread.

[0008] As a further solution of the present invention: the float body is threadedly connected to the thread-locking mechanism thread, and an annular ground wire terminal is provided at the top of the thread of the thread-locking mechanism; the ground wire terminal is made of a metal conductor material and its surface is gold-plated. In the middle of the bottom of the thread of the thread-locking mechanism, there is a motor thimble, and the bottom surface of the circular circuit board is in contact electrical connection with the motor thimble; the bottom end of the motor thimble is electrically connected to the positive and negative poles of the motor, and the motor is located at the upper end of the oil tank.

[0009] As a further solution of the present invention: a D-shaped shaft, a limit rod, a limit disk, a transmission shaft, a spring and a gasket are installed inside the oil tank. The limit rod is arranged in the middle of the D-shaped shaft and above the limit disk. The lower end of the D-shaped shaft vertically penetrates through the middle of the limit disk. The limit disk is installed in the inner wall groove of the oil tank. The limit disk is provided with wave teeth. Under the action of the spring, the wave teeth restrict the limit rod from moving when the motor is static. The limit disk is provided with a retaining piece, and the retaining piece is used to limit the forward and reverse rotation angles of the D-shaped shaft, the limit rod, the transmission shaft and the thread-locking rod. The transmission shaft is arranged at the lower end of the D-shaped shaft, the spring is arranged outside the D-shaped shaft, and the gasket is arranged at the bottom of the D-shaped shaft and outside the transmission shaft.

[0010] As a further solution of the present invention: a waterproof sealing ring is installed on the outer side of the bottom of the oil tank. The oil tank is connected to a thread-locking device below. The waterproof sealing ring is located between the oil tank and the thread-locking device. On both sides of the middle of the thread-locking device, there are oval side holes. A thread-locking rod is installed inside the thread-locking device. An oval through hole is provided in the middle of the thread-locking rod. The fishing line passes through the side holes and the through hole. One end of the fishing line is fixedly connected with a fishhook, and a lead weight is provided at one end of the fishing line close to the fishhook. The motor includes a planetary gearbox. The output shaft of the motor is butted against the upper end of the D-shaped shaft, and the motor is fixedly connected to the upper end of the oil tank.

[0011] As a further solution of the present invention: the thread-locking mechanism includes a ground wire terminal, a thread of the thread-locking mechanism, a motor thimble, a motor, an oil tank, a D-shaped shaft, a limit rod, a limit disk, a transmission shaft, a spring, a gasket, a waterproof sealing ring, a thread-locking device and a thread-locking rod; a thread-locking device is provided below the thread-locking mechanism. The thread-locking rod is located inside the thread-locking device. The top end of the thread-locking rod is connected to the bottom end of the transmission shaft. An oval through hole is horizontally penetrated in the middle of the thread-locking rod. On both sides of the thread-locking device at the relative position of the through hole, oval side holes are penetrated. One end of the fishing line close to the lead weight passes through the two side holes and the through hole.

[0012] As a further solution of the present invention: the float tail and the float body are of an integral structure, and the float body and the thread-locking mechanism are of a split structure; the float body and the thread-locking mechanism are connected by the float body thread and the thread of the thread-locking mechanism.

[0013] Compared with the prior art, the beneficial effects of the present invention are:

[0014] This application controls and detects the potential difference or capacitance difference between the signal detection terminal and the ground terminal on the float tail by collecting data from the gyroscope module through the internal controller module of the float body; identifies the position status information data of the float body and the float tail above water, on the water surface, and underwater; controls the wire-locking mechanism to carry out wire releasing and wire-locking operations, changing the position status of the fishing float body and the float tail underwater, on the water surface, and above water, so as to achieve automatic float adjustment after entering the water; and realizes the operation of automatic wire releasing after leaving the water surface, without manual float adjustment, thus achieving intelligent automatic float adjustment. Description of the Drawings

[0015] Figure 1 It is a schematic structural diagram of an intelligent automatic float-adjusting electronic float system.

[0016] Figure 2 It is a front view of an intelligent automatic float-adjusting electronic float system.

[0017] Figure 3 It is a three-dimensional view of an intelligent automatic float-adjusting electronic float system.

[0018] Figure 4 It is an enlarged view of part A in an intelligent automatic float-adjusting electronic float system.

[0019] Figure 5 It is an enlarged schematic view of part B in an intelligent automatic float-adjusting electronic float system.

[0020] Figure 6 It is a schematic structural diagram of the float tail in an intelligent automatic float-adjusting electronic float system.

[0021] Figure 7 It is a schematic structural diagram of the charger in an intelligent automatic float-adjusting electronic float system.

[0022] Figure 8 It is a schematic top-sectional view of the wire-locking device and the wire-locking rod during wire releasing in an intelligent automatic float-adjusting electronic float system.

[0023] Figure 9 It is a schematic top-sectional view of the wire-locking device and the wire-locking rod during wire locking in an intelligent automatic float-adjusting electronic float system.

[0024] In the figure: 1. Floating tail; 2. Floating body; 3. Thread-locking mechanism; 4. Charger; 5. Fishing line; 6. Signal detection terminal; 7. Electric connection wire; 8. LED control board; 9. Lithium battery; 10. Pin header; 11. Circuit board; 12. Motor pin header; 13. Ground pin; 14. Power-on charging pin; 15. Thread of floating body; 16. Sealing ring; 17. Thread of thread-locking mechanism; 18. Ground terminal; 19. Motor pin; 20. Motor; 21. Oil tank; 22. D-shaped shaft; 23. Limit rod; 24. Limit disc; 25. Transmission shaft; 26. Spring; 27. Spacer; 28. Waterproof sealing ring; 29. Thread-locking device; 30. Side hole; 31. Thread-locking rod; 32. Through hole; 33. Fishhook; 34. Sinker; 35. LED lamp; 36. Circular circuit board. Detailed implementation mode

[0025] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0026] Please refer to Figures 1 to 9 , in the embodiment of the present invention, an intelligent automatic drift-adjusting electronic float system includes a floating tail 1, a floating body 2, a thread-locking mechanism 3 and a charger 4; the floating body 2 and the shell of the thread-locking mechanism 3 are made of nano foam, reed rod or wood material, the bottom end of the floating tail 1 is fixedly connected to the floating body 2, and the floating body 2 and the thread-locking mechanism 3 are of a split structure; the floating body 2 and the thread-locking mechanism 3 are connected by a threaded structure; a fishing line 5 is arranged below the thread-locking mechanism 3, and one end of the fishing line 5 is fixedly connected with a sinker 34 and a fishhook 33; a signal detection terminal 6 is arranged at the top of the floating tail 1, and the signal detection terminal 6 is made of a metal conductor material and its surface is gold-plated; an electric connection wire 7 is arranged inside the floating tail 1, and the signal detection terminal 6 is connected to the LED lamp control board 8 located inside the floating body 2 through the electric connection wire 7, the bottom end of the floating tail 1 is fixedly connected to the floating body 2, and the lithium battery 9 is welded in the middle at the bottom of the LED lamp control board 8; the two sides of the LED control board 8 are electrically connected to the circuit board 11 through four pin headers 10, and the lithium battery 9 is located between the LED control board 8 and the circuit board 11;

[0027] The bottom of the circuit board 11 is electrically connected to two motor pin headers 12, a ground pin 13 and a power-on charging pin 14. The two motor pin headers 12 vertically penetrate through the middle of the thread of the floating body 15, and the two motor pin headers 12 are simultaneously electrically connected to the circular circuit board 36 at the bottom of the thread of the floating body 15. The ground pin 13 and the power-on charging pin 14 vertically penetrate through both sides of the thread of the floating body 15, and two sealing rings 16 are arranged in the horizontal middle section of the thread of the floating body 15;

[0028] The floating body thread 15 is connected to the thread locking mechanism thread 17, and an annular ground wire terminal 18 is provided at the top of the thread locking mechanism thread 17; the ground wire terminal 18 is made of metal conductor material and its surface is gold-plated. In the middle of the bottom of the thread locking mechanism thread 17, there is a motor thimble 19, and the bottom surface of the circular circuit board 36 is in contact electrical connection with the motor thimble 19; the bottom end of the motor thimble 19 is electrically connected to the positive and negative poles of the motor 20, and the motor 20 is located at the upper end of the oil tank 21;

[0029] Inside the oil tank 21, a D-shaped shaft 22, a limit rod 23, a limit disc 24, a transmission shaft 25, a spring 26 and a gasket 27 are installed. The limit rod 23 is arranged in the middle of the D-shaped shaft 22. The limit disc 24 is arranged below the limit rod 23 and in the inner wall groove of the oil tank 21. The transmission shaft 25 is arranged at the lower end of the D-shaped shaft 22. The spring 26 is arranged on the outside of the D-shaped shaft 22. The gasket 27 is arranged at the bottom of the D-shaped shaft 22 and on the outside of the transmission shaft 25; A waterproof sealing ring 28 is installed on the outside of the bottom of the oil tank 21. The oil tank 21 is connected to a thread locking device 29 below. The waterproof sealing ring 28 is located between the oil tank 21 and the thread locking device 29. On both sides of the middle of the thread locking device 29, there are oval side holes 30. Inside the thread locking device 29, a thread locking rod 31 is installed. An oval through hole 32 is provided in the middle of the thread locking rod 31. The fishing line 5 passes through the side holes 30 and the through hole 32. One end of the fishing line 5 is fixedly connected to a fishhook 33. A plumb bob 34 is provided at one end of the fishing line 5 close to the fishhook 33. The motor 20 includes a planetary gearbox. The output shaft of the motor 20 is butted against the upper end of the D-shaped shaft 22, and the motor 20 is fixedly connected to the upper end of the oil tank 21;

[0030] The thread locking mechanism 3 includes a ground wire terminal 18, a thread locking mechanism thread 17, a motor thimble 19, a motor 20, an oil tank 21, a D-shaped shaft 22, a limit rod 23, a limit disc 24, a transmission shaft 25, a spring 26, a gasket 27, a waterproof sealing ring 28, a thread locking device 29 and a thread locking rod 31; A thread locking device 29 is provided below the thread locking mechanism 3. The thread locking rod 31 is located inside the thread locking device 29. The top end of the thread locking rod 31 is connected to the bottom end of the transmission shaft 25. An oval through hole 32 is horizontally drilled through the middle of the thread locking rod 31. On both sides of the thread locking device 29 at the relative position of the through hole 32, oval side holes 30 are drilled through. One end of the fishing line 5 close to the plumb bob 34 passes through the two side holes 30 and the through hole 32.

[0031] The floating tail 1 and the floating body 2 are of an integral structure, and the floating body 2 and the thread locking mechanism 3 are of a split structure. The floating body 2 and the thread locking mechanism 3 are connected by a floating body thread 15 and a thread locking mechanism thread 17.

[0032] The circuit board 11 includes a controller, a delay circuit, and a gyroscope circuit. The controller is a microprocessor that includes a delay circuit. After the controller is powered on, it detects the horizontal state signal data of the gyroscope circuit. When powered on in the inverted state, it controls the LED lamp 35 to turn on and "stay on". When detecting that the state signal data of the gyroscope is in the non-inverted state during power-on, it controls the LED lamp 35 to turn off and "stay off". This function utilizes the inverted and non-inverted states of the gyroscope circuit during power-on to control the turning on and off of the LED lamp 35.

[0033] After the controller in the circuit board 11 completes the program of turning on or off the LED lamp 35, it performs the reset program of the wire locking mechanism 3. At this time, the controller in the circuit board 11 controls the motor 20 to reverse by 135 degrees. Then, under the limiting action of the limit rod 23 and the limit disc 24, the transmission shaft 25 is blocked and stops rotating. At this time, after the controller detects that the motor 20 is overcurrent, it stops supplying reverse power, then controls the motor 20 to rotate forward by 135 degrees and stops after being blocked and overcurrent, and the reset is completed. The above reset process is: the controller in the circuit board 11 controls the motor to reverse by 135 degrees - stop rotating after being blocked and overcurrent - the motor rotates forward by 135 degrees - stop rotating after being blocked and overcurrent.

[0034] After the float is thrown into the fishing point in the water and stands upright under the action of the gravity of the sinker, the controller in the circuit board 11 uses the upright signal data of the gyroscope circuit to hold for 3 seconds, and then controls the delay circuit to start timing. At the same time, the float sinks into the water under the action of the gravity of the sinker. After the delay ends, the controller in the circuit board 11 uses the conductivity of the water to start detecting the potential difference or capacitance difference between the float tail signal detection terminal 6 and the ground wire terminal 18 to identify the position information data of the float body and the float tail under the water, on the water surface, and above the water surface, and controls the principle of the wire locking mechanism 3 to rotate forward to lock the wire and reverse to release the wire to achieve automatic float adjustment after entering the water.

[0035] When the user raises the rod to catch a fish or needs to change the bait, at this time, the float leaves the water surface and is in the inverted state. The controller inside the circuit board 11 holds for 2 seconds according to the inverted signal of the gyroscope circuit and controls the wire locking mechanism to release the wire, so that the float returns to the position close to the sinker 34 of the fishing line, to achieve the function of automatically releasing the wire after the float leaves the water surface.

[0036] When the floating body thread 15 is connected to the thread of the thread locking mechanism 17 in place; the lower ends of the ground wire thimble 13 and the power-on charging thimble 14 are in contact electrical connection with the ground wire terminal 18; at this time, the power-on charging thimble 14 and the ground wire thimble 13 are in a short circuit state to the ground under the conductive action of the ground wire terminal 18, and at this time the power-on charging thimble 14 is at a low potential; the controller in the circuit board 11 controls the circuit board 11 to power on according to this low potential signal. When the floating body thread 15 is mechanically connected to the charger 4 in place; at this time, when the power-on charging thimble 14 and the ground wire thimble 13 are in contact electrical connection with the positive and negative electrodes in the charger 4; at this time, the power-on charging thimble 14 is at a high potential; the controller in the circuit board 11 controls the lithium battery 9 to charge according to this high potential signal. This function is: when the floating body 2 is connected to the thread locking mechanism 3, the controller controls each component to power on; when the floating body 2 is connected to the charger 4, it controls the lithium battery 9 to charge.

[0037] The above is only a preferred specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution of the present invention and its inventive concept, makes equivalent substitutions or changes, and should be covered by the protection scope of the present invention.

Claims

1. An intelligent automatic float-adjusting electronic float system, comprising a float tail (1), a float body (2), a wire locking mechanism (3) and a charger (4), characterized in that, The floating body (2) and the housing of the wire-locking mechanism (3) are made of nano-foam, reed stalks or wood materials. The bottom end of the floating tail (1) is fixedly connected to the floating body (2), and the floating body (2) and the wire-locking mechanism (3) are of a split structure; the floating body (2) and the wire-locking mechanism (3) are connected by a threaded structure; a signal detection terminal (6) is provided at the top of the floating tail (1), and the signal detection terminal (6) is made of a metal conductor material and its surface is gold-plated; an electrically connected wire (7) is arranged inside the floating tail (1), and the signal detection terminal (6) is connected to an LED lamp control board (8) located inside the floating body (2) through the electrically connected wire (7). The bottom end of the floating tail (1) is fixedly connected to the floating body (2). A lithium battery (9) is welded in the middle at the bottom of the LED lamp control board (8). The outer side at the bottom of the LED lamp control board (8) is electrically connected to a circuit board (11) through four pin headers (10), and the circuit board (11) is located at the bottom of the lithium battery (9). Two motor pin headers (12), a ground pin (13) and a power-on charging pin (14) are electrically connected to the bottom of the circuit board (11). The two motor pin headers (12) vertically penetrate through the middle of the floating body thread (15). The two motor pin headers (12) are simultaneously electrically connected to a circular circuit board (36) at the bottom of the floating body thread (15). The ground pin (13) and the power-on charging pin (14) vertically penetrate through both sides of the floating body thread (15). Two sealing rings (16) are provided in the horizontal middle section of the floating body thread (15). The floating body thread (15) is connected to the wire-locking mechanism thread (17), and an annular ground terminal (18) is provided at the top of the wire-locking mechanism thread (17); the ground terminal (18) is made of a metal conductor material and its surface is gold-plated. A motor pin (19) vertically penetrates through the middle at the bottom of the wire-locking mechanism thread (17). The bottom surface of the circular circuit board (36) is in contact electrical connection with the motor pin (19); the bottom end of the motor pin (19) is electrically connected to the positive and negative poles of a motor (20), and the motor (20) is located at the upper end of the oil tank (21). Four limiting grooves are provided on the inner wall of the oil tank (21). A D-shaped shaft (22), a limiting rod (23), a limiting disc (24), a transmission shaft (25), a spring (26) and a gasket (27) are installed inside the oil tank (21). The limiting rod (23) is arranged in the middle of the D-shaped shaft (22). The limiting disc (24) is arranged in the limiting groove inside the oil tank (21) at the lower end of the limiting rod (23). The top surface of the limiting disc (24) is provided with wave teeth and a retaining piece. The lower end of the D-shaped shaft (22) vertically penetrates through the middle of the limiting disc (24). The transmission shaft (25) is arranged at the lower end of the D-shaped shaft (22). The spring (26) is arranged on the outer side of the lower end of the D-shaped shaft (22). The gasket (27) is arranged at the bottom of the D-shaped shaft (22) and on the outer side of the transmission shaft (25). A waterproof sealing ring (28) is installed on the outer side of the bottom of the oil tank (21). A wire locking device (29) is connected below the oil tank (21). The waterproof sealing ring (28) is located between the oil tank (21) and the wire locking device (29). Elliptical side holes (30) are provided on both sides in the middle of the wire locking device (29). A wire locking rod (31) is installed inside the wire locking device (29). An elliptical through hole (32) is provided in the middle of the wire locking rod (31). A fishing line (5) passes through the side hole (30) and the through hole (32). One end of the fishing line (5) is fixedly connected with a fishhook (33). A lead weight (34) is provided at one end of the fishing line (5) close to the fishhook (33). The motor (20) includes a planetary gearbox. The output shaft of the motor (20) is docked with the upper end of the D-shaped shaft (22). The motor (20) is fixedly connected with the upper end of the oil tank (21).

2. The intelligent automatic float-adjusting electronic float system according to claim 1, characterized in that, The wire locking mechanism (3) includes a ground wire terminal (18), a wire locking mechanism thread (17), a motor thimble (19), a motor (20), an oil tank (21), a D-shaped shaft (22), a limiting rod (23), a limiting disc (24), a transmission shaft (25), a spring (26), a gasket (27), a waterproof sealing ring (28), a wire locking device (29) and a wire locking rod (31); A wire locking device (29) is provided below the wire locking mechanism (3). The wire locking rod (31) is located inside the wire locking device (29). The top end of the wire locking rod (31) is connected to the bottom end of the transmission shaft (25). An elliptical through hole (32) is horizontally formed through the middle of the wire locking rod (31). Elliptical side holes (30) are formed through both sides of the wire locking device (29) at the relative positions of the through hole (32).

3. An intelligent automatic float-adjusting electronic float system according to claim 1, characterized in that One end of the fishing line (5) close to the lead weight (34) passes through the two side holes (30) and the through hole (32).

4. An intelligent automatic float-adjusting electronic float system according to claim 1, characterized in that, The float tail (1) and the float body (2) are of an integral structure, and the float body (2) and the wire locking mechanism (3) are of a split structure.

5. The intelligent automatic float-adjusting electronic float system according to claim 1, wherein The float body (2) and the wire locking mechanism (3) are connected by a float body thread (15) and a wire locking mechanism thread (17).

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