A monitoring device control method and system
A technology of monitoring equipment and control methods, applied in transmission systems, short-distance systems, electromagnetic wave transmission systems, etc., can solve problems such as time deviation, inaccuracy and effectiveness, and the inability of security monitoring equipment to run time-checking services. To achieve the effect of guaranteeing the effectiveness
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Embodiment 1
[0070] According to an embodiment of the present invention, a monitoring device control method is proposed, such as figure 1 shown, including:
[0071] Step 101: the sending end receives the original signal input by the user;
[0072] Specifically, the sending end receives the original signal input by the user through key operation; or, the sending end receives the original signal input by the user through the Bluetooth function.
[0073] For example, when the user finds that the time on the monitoring device is inaccurate, he can input an original signal for correcting the time to the sending end by operating a button or through the Bluetooth function.
[0074] Step 102: The sending end converts the received original signal, and sends a corresponding optical signal to the photoresistor according to the conversion result;
[0075] According to an embodiment of the present invention, the sending end converts the received original signal, including:
[0076] Step A1: The tran...
Embodiment approach
[0093] According to an embodiment of the present invention, step B specifically includes:
[0094] Step B1: The sending end sends the modulated optical signal to the photoresistor, and collects the first optical signal received by the photoresistor and the first noise period variation;
[0095] Step B2: The sending end sends an unmodulated optical signal to the photoresistor, and collects the second optical signal received by the photoresistor and the second noise period variation;
[0096] Step B3: Count the time lengths occupied by the high-frequency part and the low-frequency part in the first optical signal and the second optical signal respectively, to obtain the overall distribution value of the time length in different environments;
[0097] Wherein, the overall distribution value of the time length is the time length occupied by the above symbols 0 and 1 in various environments.
[0098] Step B4: analyzing the first noise periodic variation and the second noise period...
Embodiment 2
[0109] According to an embodiment of the present invention, a monitoring equipment control system is proposed, such as Figure 4 As shown, including: sending end 200 and photoresistor 300;
[0110] Wherein, the sending end 200 includes:
[0111] An input module 201, configured to receive an original signal input by a user;
[0112] A conversion module 202, configured to convert the original signal received by the input module 201;
[0113] The output module 203 is used to send a corresponding optical signal to the photoresistor 300 according to the conversion result of the conversion module 202;
[0114] Photoresistor 300 includes:
[0115] A photosensitive module 301, configured to receive an optical signal sent by the sending end 200;
[0116] An analysis module 302, configured to analyze the optical signal received by the photosensitive module 301;
[0117] The sending module 303 is configured to send corresponding control instructions to the monitoring device according ...
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