Visual monitoring data acquisition and analysis equipment

Abstract

The invention relates to visual monitoring data acquisition and analysis equipment, and the equipment comprises a data acquisition assembly which carries out the capturing of image data of a sand beach coverage area, so as to obtain a field captured image; a signal identification mechanism, mETHOD FOR INTELLIGENTLY IDENTIFYING WITHOUT A SPECIFIC CAPTURE IMAGE BY A CORRESPONDING UNPROCESSED IMAGE BASED ON AN ARITHMETIC MEASUREMENT OF INDEPENDENT GRADIENT VALUES RELATED TO INDEPENDENT PIXEL POINTS OF A FRONGENCY IMAGING REGION OF THE The image is obtained through preset image processing. The visual monitoring data acquisition and analysis equipment is compact in design and has a certain intelligent level. As the unprocessed image obtained by shooting the sand beach scene at a time by the data acquisition assembly can be obtained, whether the field captured image is obtained by the corresponding unprocessed image through the preset image processing or not is identified, and the image source analysis of the field captured image is completed.

Description

Technical Field

[0001] The present invention relates to the field of data analysis, and in particular to a visual monitoring data acquisition and analysis device. Background Art

[0002] The beach is formed by the accumulation of sand on the land along the waterside or the flat land above the water surface in the water. The formation of the beach is due to the erosion of the rocks on the land by seawater. The components in the rocks that are more soluble in water, such as limestone, are lost with the seawater, while the sand, which is very hard quartz, will be retained. Due to the impact of seawater and weathering, over a long period of time, large pieces of quartz will gradually break into small pieces, and finally become small grains of sand; secondly, the soil on the seabed is exposed to the sea surface during the movement of the earth's crust, and some coral reefs and shells are also exposed. Under the impact and grinding of the waves, they become tiny particles, which are carried to the vicinity of the land by the waves. Due to the exhaustion of kinetic energy, they are deposited as beaches.

[0003] Visual monitoring of beaches is mainly used to identify safety accidents on the beach, so that response personnel can take quick measures to deal with them. However, the most realistic picture of the beach scene is the sensed image of the image sensor unit when the shooting mechanism is shooting. However, due to compression convenience or image quality optimization, the sensed image will be processed during the image transmission process, resulting in the actual image being different from the original sensed image, which can easily cause deviations in the identification of safety accidents on the beach. Summary of the invention

[0004] In order to solve the technical problems in the prior art, the present invention provides a visual monitoring data acquisition and analysis device, which can obtain an unprocessed image obtained by a data acquisition component for a certain shooting of a beach scene, perform preset image processing on the unprocessed image to obtain a corresponding representative processed image, the unprocessed image obtained by the data acquisition component for a certain shooting of the beach scene is a sensing image of a CCD sensor unit of the data acquisition component during a certain shooting before the data acquisition component outputs a scene captured image, obtain each gradient value corresponding to each pixel point of a foreground imaging area representing the processed image, and obtain each gradient value corresponding to each pixel point of a foreground imaging area representing the scene captured image. value, taking the arithmetic mean of each gradient value corresponding to each pixel point of the foreground imaging area of ​​the processed image as the first reference gradient value, taking the arithmetic mean of each gradient value corresponding to each pixel point of the foreground imaging area of ​​the scene captured image as the second reference gradient value, and when the difference obtained by subtracting the first reference gradient value from the second reference gradient value is less than the set gradient difference limit, it is identified that the scene captured image is obtained by the unprocessed image corresponding to the scene captured image through preset image processing in the data acquisition component, thereby utilizing the characteristic that the image content after the same image processing has the same image value regularity to complete the image source analysis of the scene captured image.

[0005] According to the present invention, a visual monitoring data collection and analysis device is provided, the device comprising: A data acquisition component, arranged at a beach location to perform capture of image data of the beach coverage area, for acquiring and outputting corresponding on-site captured images; A first acquisition component is connected to the data acquisition component and is used to obtain an unprocessed image obtained by the data acquisition component at a certain time of shooting the beach scene, and perform preset image processing on the unprocessed image to obtain a corresponding representative processed image, wherein the unprocessed image obtained by the data acquisition component at a certain time of shooting the beach scene is a sensing image of the CCD sensor unit of the data acquisition component at a certain time of shooting before the data acquisition component outputs the captured image on the scene; A second acquisition component, connected to the first acquisition component, for acquiring each gradient value corresponding to each pixel point of the foreground imaging area representing the processed image, and acquiring each gradient value corresponding to each pixel point of the foreground imaging area of ​​the live captured image; a signal identification mechanism connected to the second acquisition component, for taking the arithmetic mean of the gradient values ​​corresponding to the pixels of the foreground imaging area representing the processed image as the first reference gradient value, and taking the arithmetic mean of the gradient values ​​corresponding to the pixels of the foreground imaging area representing the scene captured image as the second reference gradient value, and when the difference obtained by subtracting the first reference gradient value from the second reference gradient value is less than a set gradient difference limit, identifying that the scene captured image is obtained by the unprocessed image corresponding to the scene captured image in the data acquisition component after the preset image processing, and issuing a first identification signal; otherwise, identifying that the scene captured image is not obtained by the unprocessed image corresponding to the scene captured image in the data acquisition component after the preset image processing, and issuing a second identification signal; A message notification mechanism, connected to the signal identification mechanism, for sending a notification message corresponding to the preset image processing of the on-site captured image in the data acquisition component to a remote cloud management node via a two-way communication link upon receiving the first identification signal; Wherein, the message notification mechanism is also used to send a notification message corresponding to the on-site captured image being an unprocessed image to a remote cloud management node through a two-way communication link when receiving the second identification signal.

[0006] It can be seen that the present invention has at least the following three significant substantive features: First, an unprocessed image obtained by a certain shooting of a beach scene by a data acquisition component is obtained, and a preset image processing is performed on the unprocessed image to obtain a corresponding representative processed image, wherein the unprocessed image obtained by a certain shooting of a beach scene by the data acquisition component is a sensing image of a CCD sensor unit of the data acquisition component during a certain shooting before the data acquisition component outputs a captured image on site; Second step: obtaining each gradient value corresponding to each pixel point of the foreground imaging area representing the processed image, and obtaining each gradient value corresponding to each pixel point of the foreground imaging area of ​​the live captured image; Thirdly, the arithmetic mean of the gradient values ​​corresponding to the pixels in the foreground imaging area of ​​the processed image is taken as the first reference gradient value, and the arithmetic mean of the gradient values ​​corresponding to the pixels in the foreground imaging area of ​​the scene-captured image is taken as the second reference gradient value. When the difference between the first reference gradient value and the second reference gradient value is less than the set gradient difference limit, the scene-captured image is identified as being obtained by the preset image processing of the raw image corresponding to the scene-captured image in the data acquisition component, thereby utilizing the characteristic that the image contents after the same image processing have the same image value regularity to complete the image source analysis of the scene-captured image.

[0007] The visual monitoring data acquisition and analysis device of the present invention is compact in design and has a certain level of intelligence. Since it can obtain the raw image obtained by a certain shooting of the beach scene by the data acquisition component, it can further identify whether the on-site captured image is obtained by the corresponding raw image through preset image processing, thereby completing the image source analysis of the on-site captured image. BRIEF DESCRIPTION OF THE DRAWINGS

[0008] The embodiments of the present invention will be described below with reference to the accompanying drawings, wherein: Figure 1 It is a diagram showing the internal structure of a visual monitoring data collection and analysis device according to a first embodiment of the present invention.

[0009] Figure 2 It is a diagram showing the internal structure of a visual monitoring data collection and analysis device according to a second embodiment of the present invention.

[0010] Figure 3 It is a diagram showing the internal structure of a visual monitoring data collection and analysis device according to a third embodiment of the present invention. DETAILED DESCRIPTION

[0011] The implementation scheme of the visual monitoring data collection and analysis device of the present invention will be described in detail below with reference to the accompanying drawings.

[0012] Figure 1 The internal structure diagram of the visual monitoring data collection and analysis device according to the first embodiment of the present invention is shown, and the device includes: A data acquisition component, arranged at a beach location to perform capture of image data of the beach coverage area, for acquiring and outputting corresponding on-site captured images; A first acquisition component is connected to the data acquisition component and is used to obtain an unprocessed image obtained by the data acquisition component at a certain time of shooting the beach scene, and perform preset image processing on the unprocessed image to obtain a corresponding representative processed image, wherein the unprocessed image obtained by the data acquisition component at a certain time of shooting the beach scene is a sensing image of the CCD sensor unit of the data acquisition component at a certain time of shooting before the data acquisition component outputs the captured image on the scene; A second acquisition component, connected to the first acquisition component, for acquiring each gradient value corresponding to each pixel point of the foreground imaging area representing the processed image, and acquiring each gradient value corresponding to each pixel point of the foreground imaging area of ​​the live captured image; a signal identification mechanism connected to the second acquisition component, for taking the arithmetic mean of the gradient values ​​corresponding to the pixels of the foreground imaging area representing the processed image as the first reference gradient value, and taking the arithmetic mean of the gradient values ​​corresponding to the pixels of the foreground imaging area representing the scene captured image as the second reference gradient value, and when the difference obtained by subtracting the first reference gradient value from the second reference gradient value is less than a set gradient difference limit, identifying that the scene captured image is obtained by the unprocessed image corresponding to the scene captured image in the data acquisition component after the preset image processing, and issuing a first identification signal; otherwise, identifying that the scene captured image is not obtained by the unprocessed image corresponding to the scene captured image in the data acquisition component after the preset image processing, and issuing a second identification signal; Specifically, an ASIC chip may be selected to implement the signal identification mechanism, which is connected to the second acquisition component and is used to take the arithmetic mean of the gradient values ​​corresponding to the pixels in the foreground imaging area representing the processed image as the first reference gradient value, and take the arithmetic mean of the gradient values ​​corresponding to the pixels in the foreground imaging area representing the scene captured image as the second reference gradient value. When the difference between the first reference gradient value and the second reference gradient value is less than a set gradient difference limit, it is identified that the scene captured image is obtained by the unprocessed image corresponding to the scene captured image in the data acquisition component after the preset image processing, and a first identification signal is issued. Otherwise, it is identified that the scene captured image is not obtained by the unprocessed image corresponding to the scene captured image in the data acquisition component after the preset image processing, and a second identification signal is issued. A message notification mechanism, connected to the signal identification mechanism, for sending a notification message corresponding to the preset image processing of the on-site captured image in the data acquisition component to a remote cloud management node via a two-way communication link upon receiving the first identification signal; Wherein, the message notification mechanism is further used to send a notification message corresponding to the on-site captured image being an unprocessed image to a remote cloud management node through a two-way communication link upon receiving the second identification signal; Among them, taking the arithmetic mean of each gradient value corresponding to each pixel point of the foreground imaging area representing the processed image as the first reference gradient value, and taking the arithmetic mean of each gradient value corresponding to each pixel point of the foreground imaging area of ​​the scene captured image as the second reference gradient value includes: for each pixel point, determining its corresponding gradient value based on the mean of each pixel value corresponding to each pixel point in its neighborhood and its own pixel value.

[0013] Among them, taking the arithmetic mean of each gradient value corresponding to each pixel point of the foreground imaging area of ​​the processed image as the first reference gradient value, taking the arithmetic mean of each gradient value corresponding to each pixel point of the foreground imaging area of ​​the scene captured image as the second reference gradient value also includes: for each pixel point, the greater the absolute value of the difference between the mean of each pixel value corresponding to each pixel point in its neighborhood and its own pixel value, the greater the corresponding gradient value is determined to be.

[0014] Figure 2 It is a diagram showing the internal structure of a visual monitoring data collection and analysis device according to a second embodiment of the present invention.

[0015] exist Figure 2 In, with Figure 1 Differently, the visual monitoring data collection and analysis device shown in the second embodiment of the present invention may also include: A wireless transceiver device is connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism respectively, and is used to receive the respective configuration information of the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism in a time-sharing manner, so as to realize the real-time configuration of the current working mode of the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism respectively; The wireless transceiver is respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism, and is used to receive the respective configuration information of the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism in a time-sharing manner, so as to realize the real-time configuration of the current working mode of the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism, including: the wireless transceiver is respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism through a wireless communication link; The wireless transceiver device is connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism respectively through a time division duplex communication link, including: the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism have different IP address data; The wireless transceiver device is connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism respectively through a wireless communication link, which includes: the wireless transceiver device is connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism respectively through a time division duplex communication link; And wherein, the wireless transceiver device is respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism through a wireless communication link, including: the wireless transceiver device is respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism through a frequency division duplex communication link.

[0016] Figure 3 It is a diagram showing the internal structure of a visual monitoring data collection and analysis device according to a third embodiment of the present invention.

[0017] exist Figure 3 In, with Figure 1 Differently, the visual monitoring data collection and analysis device shown in the third embodiment of the present invention may also include: An HDMI transmission device, connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism respectively, and used to provide data input operation and data output operation for the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism in a time-sharing manner; The HDMI transmission device is respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism, and is used to provide data input operation and data output operation for the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism in a time-sharing manner, including: the HDMI transmission device includes a plurality of HDMI transmission interfaces, which are respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism, and are used to provide data input operation and data output operation for the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism in a time-sharing manner; The HDMI transmission device includes a plurality of HDMI transmission interfaces, which are respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism, and are used to provide data input operation and data output operation for the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism in a time-sharing manner, including: the internal structures of the plurality of HDMI transmission interfaces are the same; And wherein, the HDMI transmission device includes multiple HDMI transmission interfaces, which are used to be connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism respectively, and are used to provide data input operations and data output operations for the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism in a time-sharing manner, including: the multiple HDMI transmission interfaces use the same pulse generating circuit.

[0018] In addition, in the visual monitoring data acquisition and analysis device, the arithmetic mean of the gradient values ​​corresponding to the pixel points in the foreground imaging area of ​​the processed image is used as the first reference gradient value, and the arithmetic mean of the gradient values ​​corresponding to the pixel points in the foreground imaging area of ​​the on-site captured image is used as the second reference gradient value, and also includes: using a gradient calculation function to represent the calculation processing process of determining the corresponding gradient value for each pixel point based on the mean of the pixel values ​​corresponding to the pixel points in its neighborhood and its own pixel value.

[0019] The above is only a specific implementation of the embodiment of the present application, but the protection scope of the embodiment of the present application is not limited thereto, and any changes or replacements within the technical scope disclosed in the embodiment of the present application should be included in the protection scope of the embodiment of the present application. Therefore, the protection scope of the embodiment of the present application should be based on the protection scope of the claims.

Claims

1. A visual monitoring data collection and analysis device, characterized in that: The device comprises: A data acquisition component, arranged at a beach location to perform capture of image data of the beach coverage area, for acquiring and outputting corresponding on-site captured images; A first acquisition component is connected to the data acquisition component and is used to obtain an unprocessed image obtained by the data acquisition component at a certain time of shooting the beach scene, and perform preset image processing on the unprocessed image to obtain a corresponding representative processed image, wherein the unprocessed image obtained by the data acquisition component at a certain time of shooting the beach scene is a sensing image of the CCD sensor unit of the data acquisition component at a certain time of shooting before the data acquisition component outputs the captured image on the scene; A second acquisition component, connected to the first acquisition component, for acquiring each gradient value corresponding to each pixel point of the foreground imaging area representing the processed image, and acquiring each gradient value corresponding to each pixel point of the foreground imaging area of ​​the live captured image; a signal identification mechanism connected to the second acquisition component, for taking the arithmetic mean of the gradient values ​​corresponding to the pixels of the foreground imaging area representing the processed image as the first reference gradient value, and taking the arithmetic mean of the gradient values ​​corresponding to the pixels of the foreground imaging area representing the scene captured image as the second reference gradient value, and when the difference obtained by subtracting the first reference gradient value from the second reference gradient value is less than a set gradient difference limit, identifying that the scene captured image is obtained by the unprocessed image corresponding to the scene captured image in the data acquisition component after the preset image processing, and issuing a first identification signal; otherwise, identifying that the scene captured image is not obtained by the unprocessed image corresponding to the scene captured image in the data acquisition component after the preset image processing, and issuing a second identification signal; A message notification mechanism, connected to the signal identification mechanism, for sending a notification message corresponding to the preset image processing of the on-site captured image in the data acquisition component to a remote cloud management node via a two-way communication link upon receiving the first identification signal; Wherein, the message notification mechanism is also used to send a notification message corresponding to the on-site captured image being an unprocessed image to a remote cloud management node through a two-way communication link when receiving the second identification signal.

2. The visual monitoring data collection and analysis device according to claim 1, characterized in that: Taking the arithmetic mean of the gradient values ​​corresponding to the pixels of the foreground imaging area representing the processed image as the first reference gradient value, and taking the arithmetic mean of the gradient values ​​corresponding to the pixels of the foreground imaging area representing the scene captured image as the second reference gradient value includes: for each pixel, determining its corresponding gradient value based on the mean of the pixel values ​​corresponding to the pixels of its neighborhood and its own pixel value. Wherein, taking the arithmetic mean of the gradient values ​​corresponding to the pixels of the foreground imaging area representing the processed image as the first reference gradient value, and taking the arithmetic mean of the gradient values ​​corresponding to the pixels of the foreground imaging area representing the scene captured image as the second reference gradient value also includes: for each pixel, the greater the absolute value of the difference between the mean of the pixel values ​​corresponding to the pixels of its neighborhood and its own pixel value, the greater the corresponding gradient value is determined.

3. The visual monitoring data collection and analysis device according to claim 2, characterized in that: The device also includes: A wireless transceiver device is connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism respectively, and is used to receive the respective configuration information of the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism in a time-sharing manner, so as to realize the real-time configuration of the current working mode of the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism respectively; Among them, the wireless transceiver device is respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism, and is used to receive the respective configuration information of the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism in a time-sharing manner, so as to realize the real-time configuration of the current working mode of the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism. The wireless transceiver device is respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism through a wireless communication link.

4. The visual monitoring data collection and analysis device according to claim 3, characterized in that: The wireless transceiver device is respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism through a time division duplex communication link, including: the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism have different IP address data.

5. The visual monitoring data collection and analysis device according to claim 4, characterized in that: The wireless transceiver device is respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism through a wireless communication link, including: the wireless transceiver device is respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism through a time division duplex communication link.

6. The visual monitoring data collection and analysis device according to claim 4, characterized in that: The wireless transceiver device is connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism respectively through a wireless communication link, including: the wireless transceiver device is connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism respectively through a frequency division duplex communication link.

7. The visual monitoring data collection and analysis device according to claim 2, characterized in that: The device also includes: An HDMI transmission device, connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism respectively, and used to provide data input operation and data output operation for the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism in a time-sharing manner; Among them, the HDMI transmission device is respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism, and is used to provide data input operations and data output operations for the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism in a time-sharing manner, including: the HDMI transmission device includes multiple HDMI transmission interfaces, which are respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism, and are used to provide data input operations and data output operations for the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism in a time-sharing manner.

8. The visual monitoring data collection and analysis device according to claim 7, characterized in that: The HDMI transmission device includes multiple HDMI transmission interfaces, which are respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism, and are used to provide data input operations and data output operations for the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism in a time-sharing manner, including: the internal structures of the multiple HDMI transmission interfaces are the same.

9. The visual monitoring data collection and analysis device according to claim 7, characterized in that: The HDMI transmission device includes multiple HDMI transmission interfaces, which are respectively connected to the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism, and are used to provide data input operations and data output operations for the first acquisition component, the second acquisition component, the signal identification mechanism and the message notification mechanism in a time-sharing manner, including: the multiple HDMI transmission interfaces use the same pulse generating circuit.

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