Auxiliary camera lighting system

Abstract

The present invention discloses an auxiliary camera lighting system, comprising a remote control subsystem, a lighting subsystem and a camera subsystem; the present invention adopts semiconductor laser blue light as a light source, and the life of the light source can reach 100,000 hours, which is 50 times the life of an ordinary xenon headlight, and has a longer service life; the semiconductor blue light source has a higher photoelectric conversion efficiency, so the semiconductor blue light source is more energy-saving and generates less heat; the start and stop operation time interval of the semiconductor laser blue light source is in microseconds, and the response time is short; by setting up a matching camera subsystem, it is possible to take pictures, which is conducive to searching and identifying targets at night or under bad weather conditions, and has a better observation effect than the human eye, thereby improving the observation effect; in addition, the system provided by the present invention can turn on the camera through the remote control subsystem and can directly turn on the camera through the lighting subsystem. When the remote control subsystem is in a maintenance state, the camera can be directly called through the lighting lamp to achieve uninterrupted monitoring.

Description

Technical Field

[0001] The invention relates to the technical field of ship traffic safety, in particular to an auxiliary camera lighting system. Background Art

[0002] At present, when ships are sailing on inland rivers and oceans, lighthouses need to be set up to monitor the river and sea surfaces 24 hours a day to ensure the safety of the ships. Once a ship is wrecked, rescue work can be organized immediately to reduce the losses caused by the accident. Existing lighthouse lighting uses xenon headlights for lighting. The xenon headlights have the following main technical defects during use: first, the service life of the xenon headlights is short; second, the photoelectric conversion efficiency of the xenon headlights is low, which wastes electricity, and the low photoelectric conversion rate will also cause the xenon headlights to generate high heat and be easily damaged; third, the interval between the start and stop operations of the xenon headlights is long; in addition, the existing lighting lamps are not equipped with cameras. In the dark or in bad weather, the situation on the river or sea surface cannot be seen clearly by the naked eye, and the target cannot be searched and identified, which is prone to observation omissions. Summary of the invention

[0003] The object of the present invention is to provide an auxiliary camera lighting system to solve the problems raised in the above background technology.

[0004] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: an auxiliary camera lighting system, the lighting system includes a remote control subsystem, a lighting subsystem and a camera subsystem, the remote control subsystem includes a display module, a signal processing module and a signal transceiver module 1; the camera subsystem includes a camera control module, a signal transceiver module 2 and a camera, the lighting subsystem includes a signal transceiver module 3, a lighting control module and a search light, the signal transceiver module 3 includes a signal transceiver submodule 1 and a signal transceiver submodule 2; the signal transceiver submodule 1 is connected to the signal transceiver module 1 by a cable; the signal transceiver submodule 2 is connected to the signal transceiver module 2 by a cable; the signal transceiver module 1 is connected to the signal transceiver module 2 by a cable ; When the signal transceiver module one is turned on, the signal transceiver module three starts the signal transceiver submodule one and keeps the signal transceiver submodule two closed, and the signal transceiver submodule one transmits the request to start the camera to the signal transceiver module one, and the command to start the camera is processed by the signal processing module and then transmitted by the signal transceiver module one to the signal transceiver module two; when the signal transceiver module one is turned off, the signal transceiver module three starts the signal transceiver submodule two and keeps the signal transceiver submodule one closed, and the signal transceiver submodule two directly transmits the request to start the camera to the signal transceiver module two; the search light adopts a semiconductor blue light laser as a light source, and the substrate material inside the search light is gallium nitride; the camera subsystem search light and the camera are fixedly connected to the pan / tilt head.

[0005] As a preferred technical solution of the present invention, when the above-mentioned signal transceiver module 1 is started to shut down, the signal transceiver module 1 transmits the command to start the signal transceiver submodule 2 and shut down the signal transceiver submodule 1 to the signal transceiver submodule 1 before shutting down. After receiving the command, the signal transceiver submodule 1 transmits the command to start the signal transceiver submodule 2 to the signal transceiver submodule 2; the signal transceiver submodule 1 is automatically shut down and the signal transceiver submodule 2 is turned on by itself.

[0006] As a preferred technical solution of the present invention, after being enabled, the above-mentioned signal transceiver module 1 transmits a command to start the signal transceiver submodule 1 and shut down the signal transceiver submodule 2; the signal transceiver submodule 2 transmits the received start command to the signal transceiver submodule 1, and then the signal transceiver submodule 2 shuts itself down and the signal transceiver submodule 1 starts itself up.

[0007] As a preferred technical solution of the present invention, after the above-mentioned signal transceiver module 1 receives the request to start the camera from the signal transceiver sub-module 1, it passes the request to the signal processing module. The signal processing module judges the request and passes the made command to the signal transceiver module 2 through the signal transceiver module 1.

[0008] As a preferred technical solution of the present invention, the signal transceiver module 3 transmits the received command to turn on the camera to the camera control module, and the camera control module turns on the camera after receiving the turn-on command.

[0009] As a preferred technical solution of the present invention, the above-mentioned signal processing module processes the information received by the signal transceiver module 1, the signal processing module transmits the processed information to the signal transceiver module 1, and the display module displays the working process of the remote control subsystem to realize human-computer interaction.

[0010] Compared with the prior art, the present invention has the following beneficial effects:

[0011] The present invention adopts semiconductor laser blue light as the light source, and the light source life can reach 100,000 hours, which is 50 times the life of ordinary xenon headlights, and has a longer service life; to achieve the same lighting effect, the semiconductor blue light source only needs 200W, while ordinary xenon headlights need 2000W, so the semiconductor blue light source is more energy-efficient; the semiconductor laser blue light source has a microsecond start-stop operation time interval, and the response time is short, while the frequent start-stop time of the xenon headlight requires at least 5 minutes, and the response time is long. By setting up a matching camera subsystem, it is possible to take pictures, which is conducive to searching and identifying targets at night or in bad weather conditions, and is better than the human eye observation effect, improving the observation effect; in addition, the system provided by the present invention can turn on the camera through the remote control subsystem and can directly turn on the camera through the lighting subsystem. When the remote control subsystem is in maintenance, the camera can be directly called through the lighting lamp to achieve uninterrupted monitoring. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] Figure 1 It is a structural schematic diagram of an auxiliary camera lighting system;

[0013] Figure 2 It is a schematic diagram of the structure of a remote control subsystem in an auxiliary camera lighting system;

[0014] Figure 3 It is a schematic diagram of the structure of an illumination subsystem in an auxiliary camera illumination system;

[0015] Figure 4 A schematic diagram of the structure of a camera subsystem in an auxiliary camera lighting system;

[0016] Figure 5 It is a schematic diagram of the connection structure of each module in an auxiliary camera lighting system;

[0017] Figure 6 Opens the camera workflow diagram for an auxiliary camera lighting system.

[0018] In the figure: 1. remote control subsystem; 101. display module; 102. signal processing module; 103. signal transceiver module one; 2. lighting subsystem; 201. signal transceiver module three; 201A. signal transceiver submodule one; 201B. signal transceiver submodule two; 202. lighting control module; 203. search light; 3. camera subsystem; 301. camera control module; 302. signal transceiver module two; 303. camera. DETAILED DESCRIPTION

[0019] In order to enable those skilled in the art to better understand the solution of the present application, the technical solution in the embodiment of the present application will be clearly and completely described below in conjunction with the drawings in the embodiment of the present application. Obviously, the described embodiment is only a part of the embodiment of the present application, not all of the embodiments. Based on the embodiments in the present application, all other embodiments obtained by ordinary technicians in the field without making creative work results should fall within the scope of protection of this application.

[0020] It should be noted that, in the absence of conflict, the embodiments and features in the embodiments of the present application can be combined with each other. Figure 1-6 , and describes the application in detail with reference to embodiments.

[0021] An auxiliary camera lighting system, the lighting system includes a remote control subsystem 1, a lighting subsystem 2 and a camera subsystem 3, such as Figure 1 As shown, the remote control subsystem 1, the lighting subsystem 2 and the camera subsystem 3 are connected to each other;

[0022] The remote control subsystem 1 includes a display module 101, a signal processing module 102 and a signal transceiver module 103; Figure 2 As shown, the display module 101 and the signal transceiver module 103 are both connected to the signal processing module 102; the signal processing module 102 processes the information received by the signal transceiver module 103, and the signal processing module 102 transmits the processed information to the signal transceiver module 103, and the display module 101 displays the working process of the remote control subsystem 1 to realize human-computer interaction.

[0023] The camera subsystem 3 includes a camera control module 301, a signal transceiver module 302 and a camera 303. Figure 4 As shown, the camera 303 control module is connected to the signal transceiver module 2 302, and the signal transceiver module 2 302 is connected to the camera 303;

[0024] like Figure 3 As shown, the lighting subsystem 2 includes a signal transceiver module 3 201, a lighting control module 202 and a search light 203, the signal transceiver module 3 201 includes a signal transceiver submodule 1 201A and a signal transceiver submodule 2 201B; the signal transceiver submodule 1 201A and the signal transceiver submodule 2 201B are both connected to the lighting control module 202, and the lighting control module 202 is connected to the search light 203; the signal transceiver submodule 1 201A is connected to the signal transceiver module 1 103 by a cable; the signal transceiver submodule 2 201B is connected to the signal transceiver module 2 302 by a cable; the signal transceiver module 1 103 is connected to the signal transceiver module 2 302 by a cable;

[0025] like Figure 5-6As shown, after the signal transceiver module 103 is enabled, it transmits a command to the signal transceiver submodule 201B to start the signal transceiver submodule 101A and turn off the signal transceiver submodule 201B. The signal transceiver submodule 201B transmits the received start command to the signal transceiver submodule 101A. Then the signal transceiver submodule 201B turns itself off and the signal transceiver submodule 101A turns itself on. Then the signal transceiver submodule 101A sends a command to turn on the camera 303 to the signal transceiver module 103. The signal transceiver module 103 transmits the received command to the signal processing module 102 for processing. The signal processing module 102 transmits the processing result to the signal transceiver module 202 through the signal transceiver module 103. The signal transceiver module 202 transmits the received command to turn on the camera 303 to the camera 303 control module. The camera 303 control module turns on the camera 303.

[0026] When the signal transceiver module 103 is turned off, the signal transceiver module 103 transmits a command to turn on the signal transceiver submodule 2 201B and turn off the signal transceiver submodule 1 201A to the signal transceiver submodule 1 201A before shutting down. After receiving the command, the signal transceiver submodule 1 201A transmits the command to start the signal transceiver submodule 2 201B to the signal transceiver submodule 2 201B; the signal transceiver submodule 1 201A is automatically turned off and the signal transceiver submodule 2 201B is turned on by itself; after the signal transceiver submodule 2 201B is turned on, the command to turn on the camera 303 is directly transmitted to the signal transceiver module 2 302, and the signal transceiver module 2 302 transmits the received turn-on command to the camera control module 301. After receiving the command, the camera control module 301 turns on the camera 303.

[0027] The search light 203 uses semiconductor blue laser as a light source, and the substrate material inside the search light 203 is gallium nitride; the camera subsystem 3 search light 203 and the camera 303 are fixedly connected to the pan / tilt platform.

[0028] The above are only preferred specific implementation modes of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical solutions and inventive concepts of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. An auxiliary camera lighting system, characterized in that: The lighting system comprises a remote control subsystem (1), a lighting subsystem (2) and a camera subsystem (3); the remote control subsystem (1) comprises a display module (101), a signal processing module (102) and a signal transceiver module 1 (103); the camera subsystem (3) comprises a camera control module (301), a signal transceiver module 2 (302) and a camera (303); the lighting subsystem (2) comprises a signal transceiver module 3 (201), a lighting light control module (202) and a search light ( 203), the signal transceiver module three (201) includes a signal transceiver submodule one (201A) and a signal transceiver submodule two (201B); the signal transceiver submodule one (201A) is connected to the signal transceiver module one (103) by a cable; the signal transceiver submodule two (201B) is connected to the signal transceiver module two (302) by a cable; the signal transceiver module one (103) is connected to the signal transceiver module two (302) by a cable; the signal transceiver module one (103) is connected to the signal transceiver module two (302) by a cable; 03), the signal transceiver module three (201) starts the signal transceiver submodule one (201A) and keeps the signal transceiver submodule two (201B) closed, the signal transceiver submodule one (201A) transmits the request to start the camera to the signal transceiver module one (103), and the command to start the camera (303) is processed by the signal processing module (102) and then transmitted by the signal transceiver module one (103) to the signal transceiver module two (302); the signal transceiver module one (103) When closed, the signal transceiver module three (201) starts the signal transceiver submodule two (201B) and keeps the signal transceiver submodule one (201A) closed, and the signal transceiver submodule two (201B) directly transmits the request to start the camera to the signal transceiver module two (302); the search light (203) uses a semiconductor blue light laser as a light source, and the substrate material of the search light (203) is gallium nitride; the camera subsystem (3) and the search light (203) are fixedly connected to the pan / tilt head.

2. The auxiliary camera lighting system according to claim 1, characterized in that: When the signal transceiver module 1 (103) is started to shut down, the signal transceiver module 1 (103) transmits a command to start the signal transceiver submodule 2 (201B) and shut down the signal transceiver submodule 1 (201A) before shutting down. After receiving the command, the signal transceiver submodule 1 (201A) transmits the command to start the signal transceiver submodule 2 (201B) to the signal transceiver submodule 2 (201B); The signal transceiver submodule one (201A) automatically turns off and the signal transceiver submodule two (201B) turns on itself.

3. The auxiliary camera lighting system according to claim 1, characterized in that: After the signal transceiver module 1 (103) is enabled, it transmits a command to the signal transceiver submodule 2 (201B) to start the signal transceiver submodule 1 (201A) and turn off the signal transceiver submodule 2 (201B); the signal transceiver submodule 2 (201B) transmits the received start command to the signal transceiver submodule 1 (201A), and then the signal transceiver submodule 2 (201B) turns itself off and the signal transceiver submodule 1 (201A) turns itself on.

4. The auxiliary camera lighting system according to claim 3, characterized in that: After the signal transceiver module 1 (103) receives the request to start the camera from the signal transceiver submodule 1 (201A), the signal processing module (102) passes the request to the signal processing module (102). The signal processing module (102) judges the request and passes the command made to the signal transceiver module 2 (302) through the signal transceiver module 1 (103).

5. The auxiliary camera lighting system according to claim 2, characterized in that: The signal transceiver module three (201) transmits the received command to turn on the camera (303) to the camera control module (301), and the camera control module (301) turns on the camera (303) after receiving the turn-on command.

6. The auxiliary camera lighting system according to claim 1, characterized in that: The signal processing module (102) processes the information received by the signal transceiver module (103), the signal processing module (102) transmits the processed information to the signal transceiver module (103), and the display module (101) displays the working process of the remote control subsystem (1), thereby realizing human-computer interaction.

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