Floating high lamp

Abstract

The utility model discloses a buoy high lamp which comprises a buoy shell, a hanging ring is installed in the buoy shell, a circular ring of the hanging ring is located at the top of the buoy shell, other parts of the hanging ring are fixed in the buoy shell, a PCB is fixed in the buoy shell through resin glue, and the PCB is fixed in the buoy shell through a light source. A switching circuit, a voltage stabilizing circuit, a charging control circuit, two groups of infrared lamp beads, namely, a 940-nanometer infrared lamp bead and an 850-nanometer infrared lamp bead, a charging indicator lamp, a rechargeable battery and a magnetic charging seat are arranged on the PCB, the magnetic charging seat is welded on the PCB, and three electrodes are arranged on the magnetic charging seat. The buoy high lamp has the advantages that the buoy water entering signal detection electrode is matched with the switch circuit, a closed circuit is formed after water entering, the infrared lamp bead is turned on, an open circuit is formed after water exiting, and the infrared lamp bead is turned off, so that the purposes of prolonging the service life of the buoy high lamp and saving energy are achieved.

Description

Technical Field

[0001] The utility model relates to the technical field of fishing tackle, in particular to a floating light for fishing. Background Art

[0002] When people go night fishing, they use an underwater camera for night fishing to observe the fish situation underwater and need to use a floating light to provide a lighting source for the camera. However, the existing floating lights have the following problems: 1. They use a DC port or an Android port for charging. After use, the water in the charging port is not easy to dry, resulting in easy damage to the device and electric leakage during charging; 2. They use a single infrared lamp bead and cannot meet the needs of both lighting brightness and depth at the same time. Content of the Utility Model

[0003] The purpose of the utility model is to solve the shortcomings existing in the prior art and propose a floating light for fishing.

[0004] In order to achieve the above purpose, the utility model adopts the following technical scheme: A floating light for fishing, including a floating light housing, in which a hanging ring is installed. The circular ring of the hanging ring is located at the top of the housing, and the other parts of the hanging ring are fixed in the housing. The PCB board is fixed in the floating light housing with resin glue. The resin glue not only has a fixing function but also a sealing function to ensure that the inside of the floating light does not get water. The PCB board is provided with a switch circuit, a voltage stabilizing circuit, a charging control circuit, two groups of infrared lamp beads, a charging indicator light, and a magnetic charging seat. The magnetic charging seat is equipped with three electrodes. Two electrodes are used for charging, and the other electrode is used to detect the signal of the floating light entering the water. The two groups of infrared lamp beads are 850-nanometer infrared lamp beads and 940-nanometer infrared lamp beads. A rechargeable battery is welded to the back of the PCB board. The switch circuit, the voltage stabilizing circuit, the charging control circuit, the two groups of infrared lamp beads, the rechargeable battery, the charging indicator light, and the magnetic charging seat are electrically connected through the printed circuit on the PCB board. The three electrodes on the magnetic charging seat are electrically connected through the printed circuit on the PCB board.

[0005] Preferably, the switch circuit, the voltage stabilizing circuit, the charging control circuit, the two groups of infrared lamp beads, the charging indicator light, the rechargeable battery, the charging electrode, and the floating light water entry signal detection electrode are electrically connected through the printed circuit on the PCB board. The floating light water entry signal detection electrode cooperates with the switch circuit to form a circuit after entering the water, and the infrared lamp beads light up. After coming out of the water, it becomes an open circuit and the infrared lamp beads go out. The voltage stabilizing circuit provides working electrical energy for the 850-nanometer infrared lamp beads and 940-nanometer infrared lamp beads. The charging control circuit ensures the safe charging of the rechargeable battery. When charging, the charging indicator light lights up to start charging, and the charging indicator light goes out after the battery is fully charged.

[0006] Preferably, the radiation intensity of the 850-nm infrared lamp beads is three times that of the 940-nm infrared lamp beads, and the penetration ability of the 940-nm infrared lamp beads is five times that of the 850-nm infrared lamp beads. The two groups of lamp beads are used in combination to achieve good lighting effects whether in clear water or turbid water. Preferably, there are no concave parts on the magnetic charging base, and there is no residual water after use, preventing leakage during charging.

[0007] Preferably, the circular ring on the hanging ring on the float housing is exposed outside the housing, and the rest is fixedly installed in the housing to ensure firm cooperation between the hanging ring and the housing. The circular ring facilitates hanging the float high lamp at the position of the night fishing camera. Preferably, the float housing is made of buoyant material, making the entire float high lamp float in water.

[0008] Compared with the prior art, the beneficial effects of the present utility model are as follows:

[0009] 1. In the present utility model, the float water entry signal detection electrode cooperates with the switch circuit to form a circuit after entering the water, causing the infrared lamp beads to light up, and becoming an open circuit when out of the water, causing the infrared lamp beads to go out, thereby achieving the purpose of extending the usage time and saving energy of the float high lamp.

[0010] 2. In the present utility model, two groups of lamp beads, namely 850-nm infrared lamp beads and 940-nm infrared lamp beads, are used in combination to achieve good lighting effects whether in clear water or turbid water.

[0011] 3. In the present utility model, there are no concave parts on the magnetic charging base, and there is no residual water after use, preventing leakage during charging. Description of the Drawings

[0012] Figure 1 is a schematic structural diagram of the float high lamp proposed by the present utility model;

[0013] Figure 2 is a schematic top view of the PCB board in the float high lamp proposed by the present utility model. In the figure: 1. Float housing; 2. Hanging ring; 3. Rechargeable battery; 4. PCB board; 5. Magnetic charging base; 6. 940 Infrared lamp bead; 7. Charging indicator; 8. 850 Infrared lamp bead; 9. Float water entry signal detection electrode; 10. Charging electrode. Detailed Embodiments

[0014] Next, the technical solutions in the embodiments of the present utility model will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present utility model. Obviously, the described embodiments are only one embodiment of the present utility model, rather than all embodiments.

[0015] Embodiment: Refer to Figure 1 and Figure 2, a floating buoy high lamp, comprising a floating buoy housing 1, in which a hanging ring 2 is installed. The circular ring of the hanging ring 2 is located at the top of the floating buoy housing 1, and the other parts of the hanging ring 2 are fixed in the floating buoy housing 1. The PCB board 4 is fixed in the floating buoy housing 1 with resin glue. The resin glue not only has a fixing function but also a sealing function to ensure that water does not enter the inside of the floating buoy high lamp. The PCB board 4 is provided with a switch circuit, a voltage stabilizing circuit, a charging control circuit, two groups of infrared lamp beads, namely a 940-nanometer infrared lamp bead 6 and an 850-nanometer infrared lamp bead 8, a charging indicator lamp 7, a charging battery 3, and a magnetic charging base 5. The floating buoy water entry signal detection electrode 9 and the charging electrode 10 installed in the magnetic charging base 5 are electrically connected through the printed circuit on the PCB board 4. The magnetic charging base 5 is welded to the PCB board 4 and has three electrodes. The charging electrode 10 is used for charging, and the floating buoy water entry signal detection electrode 9 is used to detect the floating buoy water entry and exit signals. The charging battery 3 is welded to the back of the PCB board 4. When in use, the hanging ring 2 is hung at the position of the night fishing camera and enters the water together. After entering the water, the floating buoy water entry signal detection electrode 9 transmits the water entry signal to the switch circuit to turn on the circuit, and the two groups of infrared lamp beads, namely the 940-nanometer infrared lamp bead 6 and the 850-nanometer infrared lamp bead 8, light up to illuminate the night fishing camera. After fishing, the floating buoy high lamp and the night fishing camera leave the water together. After leaving the water, the floating buoy water entry signal detection electrode 9 transmits the water exit signal to the switch circuit to turn off the circuit, and the two groups of infrared lamp beads, namely the 940-nanometer infrared lamp bead 6 and the 850-nanometer infrared lamp bead 8, go out. Place the magnetic head on the charging cable on the magnetic charging base 5, and insert the other end into the charging head or power bank to start charging the floating buoy high lamp. The charging indicator lamp 7 lights up. After the floating buoy high lamp is fully charged, the charging indicator lamp 7 goes out, and the charging is completed, ensuring that the floating buoy high lamp has sufficient electric energy for reuse. Among them, the switch circuit, the voltage stabilizing circuit, the charging control circuit, and the magnetic head charging cable are existing well-known and commonly used technologies, and will not be elaborated here. Those skilled in the art can make arbitrary selections according to their needs or convenience.

[0016] 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. Floating buoy high lamp, including a floating buoy housing (1), characterized in that, A hanging ring (2) is installed in the floating buoy housing (1). The circular ring of the hanging ring (2) is located at the top of the floating buoy housing (1), and the other parts of the hanging ring (2) are fixed in the floating buoy housing (1). The PCB board (4) is fixed in the floating buoy housing (1) with resin glue. The PCB board (4) is provided with a switch circuit, a voltage stabilizing circuit, a charging control circuit, two groups of infrared lamp beads, a charging indicator light (7), a charging battery (3) and a magnetic charging seat (5). The magnetic charging seat (5) is welded on the PCB board (4). There are three electrodes on the magnetic charging seat (5). Two electrodes are used for charging, and the other electrode is used for detecting the signal of the floating buoy entering the water. The charging electrode (10) is used for charging, and the floating buoy water entry signal detection electrode (9) is used for detecting the signal of the floating buoy entering and leaving the water. The charging battery (3) is welded on the back of the PCB board (4).

2. The floating high lamp according to claim 1, wherein Two groups of infrared lamp beads, namely 850-nanometer infrared lamp beads (8) and 940-nanometer infrared lamp beads (6), are installed on the PCB board (4).

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