KR20230087008A - Processing apparatus for dangerous situation information using smart pole - Google Patents

Abstract

The present invention relates to a dangerous situation information processing apparatus using a smart pole, and more specifically, to a dangerous situation information processing apparatus using a smart pole, which is capable of quickly and accurately detecting a dangerous situation in which a person is drowning in water using artificial intelligence. According to the present invention, the dangerous situation information processing apparatus using a smart pole comprises: a pillar part including a portion extending vertically; a camera module disposed on the pillar part; and a server. The camera module may generate a monitoring video by capturing a preset target area, and transmit the generated monitoring video to the server. The server may detect a dangerous situation by analyzing the monitoring video received from the camera module and store a related video related to the detected dangerous situation in association with location information related to the dangerous situation.

Description

Danger situation information processing device using smart pole {PROCESSING APPARATUS FOR DANGEROUS SITUATION INFORMATION USING SMART POLE}

The present invention relates to a dangerous situation information processing device using a smart pole.

More specifically, the present invention relates to a dangerous situation information processing device using a smart pole capable of quickly and accurately detecting a dangerous situation such as a person falling into water using artificial intelligence.

Due to the development of information and communication technology, devices for collecting image data such as CCTVs or black boxes are becoming widely available.

These devices can be used as part of an unmanned surveillance system for social and personal safety.

Conventional data collection devices are mainly used for the purpose of confirming problems by using recorded video data ex post facto.

However, there is a problem in that it is difficult to quickly respond to a dangerous situation in the case of using image data ex post facto.

As a prior art for quickly responding to dangerous situations, Korean Patent Registration No. 10-2126498 [Document 1] (title of invention: image recognition-based dangerous situation detection method, risk management device, and dangerous situation detection system) image recognition It includes a technical configuration that detects objects, movements of objects, and dangerous situations through learning using artificial intelligence algorithms and performs monitoring functions according to risk levels.

However, in the technique according to Document 1, there is a problem that data throughput may be excessively increased.

[Document 1] Republic of Korea Patent Registration No. 10-2126498

An object of the present invention is to provide a dangerous situation information processing device using a smart pole capable of quickly and accurately detecting a dangerous situation using artificial intelligence.

Another object of the present invention is to provide dangerous situation information processing using a smart pole for detecting a dangerous situation with a relatively small amount of data processing.

Another object of the present invention is to provide dangerous situation information processing using smart poles that can effectively manage dangerous situations.

Danger situation information processing device using a smart pole according to the present invention includes a pillar part including a part extending in the vertical direction, a camera module disposed in the pillar part, and a server ), wherein the camera module captures a preset target area to generate a monitoring image, transmits the generated monitoring image to the server, and the server receives the image from the camera module A dangerous situation may be detected by analyzing the surveillance image, and the detected image related to the dangerous situation and location information related to the dangerous situation may be stored in association with each other.

In addition, the camera module includes a case part, a frame part disposed inside the case part, and a camera part disposed in the frame part within the case part and capturing the target area. and a camera driver disposed within the case unit and electrically connected to the camera unit, wherein the camera unit includes a first camera part corresponding to a first capturing area and a second capturing area. The first camera part includes a first lens part (First Lens Part) and a first lens substrate part on which the first lens part is disposed. The second camera unit includes a second lens part and a second lens substrate part on which the second lens part is disposed, and the direction in which the first lens part faces is the first lens part. 2 It may be different from the direction the lens unit faces.

In addition, the camera module captures the target area in a setting mode to generate a setting image, transmits the generated setting image to the server, and the server analyzes the setting image It is possible to determine that the dangerous situation has occurred when a background is detected in the target region, an interest region and a danger region are set in the detected background, and an object is located in the danger region in the surveillance image. .

In addition, the server may transmit information on the dangerous situation to at least one preset terminal.

In addition, a pointing part for pointing to a location related to the dangerous situation may be further included.

Dangerous situation information processing using a smart pole according to the present invention has the effect of sufficiently quickly and accurately detecting a dangerous situation.

Dangerous situation information processing using a smart pole according to the present invention has the effect of detecting a dangerous situation more quickly by reducing data throughput.

1 to 3 are views for explaining a dangerous situation information processing device using a smart pole and artificial intelligence according to the present invention.
4 and 5 are diagrams for explaining the setting mode.
6 to 17 are diagrams for explaining a method for detecting a dangerous situation and contents related thereto.
18 to 35 are diagrams for explaining a camera module.

Hereinafter, a dangerous situation information processing device using a smart pole according to the present invention will be described in detail with reference to the accompanying drawings.

Since the present invention can make various changes and have various embodiments, specific embodiments will be illustrated in the drawings and described in detail in the detailed description. This is not intended to limit the present invention to specific embodiments, and it can be understood to include all changes, equivalents, and substitutes included in the spirit and technical scope of the present invention.

In describing the present invention, terms such as first and second may be used to describe various components, but the components may not be limited by the terms. The terms may only be used for the purpose of distinguishing one component from another. For example, a first element may be termed a second element, and similarly, a second element may be termed a first element, without departing from the scope of the present invention.

The terms and/or may include any combination of a plurality of related recited items or any of a plurality of related recited items.

When a component is referred to as being "connected" or "connected" to another component, it may be directly connected or connected to the other component, but other components may exist in the middle. can be understood On the other hand, when an element is referred to as “directly connected” or “directly connected” to another element, it may be understood that no other element exists in the middle.

Terms used in this document are only used to describe specific embodiments and are not intended to limit the present invention. Singular expressions may include plural expressions unless the context clearly dictates otherwise.

In this document, the terms "include" or "having" are intended to indicate that there is a feature, number, step, operation, component, part, or combination thereof described in the specification, and one or more other features It may be understood that the presence or addition of numbers, steps, operations, components, parts, or combinations thereof is not precluded.

Unless defined otherwise, all terms used herein, including technical or scientific terms, may have the same meaning as commonly understood by a person of ordinary skill in the art to which the present invention belongs. Terms such as those defined in commonly used dictionaries may be interpreted as having a meaning consistent with the meaning in the context of the related art, and unless explicitly defined in the present application, interpreted in an ideal or excessively formal meaning. It may not be.

In addition, the embodiments disclosed in this document are provided to more completely explain the embodiments to those skilled in the art, and the shapes and sizes of elements in the drawings may be exaggerated for clearer explanation.

In describing the present invention in this document, if it is determined that a detailed description of a related known function or configuration may unnecessarily obscure the gist of the present invention, the detailed description may be omitted.

1 to 3 are views for explaining a dangerous situation information processing device using a smart pole and artificial intelligence according to the present invention.

Referring to FIG. 1, a dangerous situation information processing device (1, hereinafter referred to as an 'information processing device') using a smart pole and artificial intelligence according to the present invention includes at least one camera module (Camera Module, 10), a server ( Server, 20), at least one safety officer terminal 60, and at least one supervisor terminal 70.

The camera module 10 may capture images of the surroundings. Here, the periphery may mean an area where the camera module 10 can shoot, that is, a target area. The target region may also be referred to as a photographing region.

The camera module 10 may be disposed on a pillar part 50 having a pillar shape.

The pole portion 50 may have a shape such as a telephone pole or a street light installed on the side of a road.

As such, installing the camera module 10 to the pillar portion 50 may be referred to as a smart pole (SP) type.

Although not shown, various electronic components such as power supply means for supplying power and communication means for performing communication may be disposed in the smart pole (SP).

As shown in Figure 2, a plurality of smart poles (SP) including the camera module 10 may be installed in high water sites such as rivers (RVR).

In the following, description is mainly made from the viewpoint of the camera module 10, but the camera module 10 may be replaced with a smart pole (SP).

The safety officer terminal 60 may be a wireless and/or wired terminal used by a preset safety officer.

Security guards are people who work for regional stability, and various people such as merchants, public officials, and police can participate in them.

For example, suppose merchant A is active in Ichon-dong, Seoul.

Merchant A registers with the server 20 as a safety officer corresponding to Ichon-dong, Seoul using his/her terminal (safety officer terminal 60), and downloads a predetermined app corresponding to the safety officer from the server 20. You can download and install it.

When a dangerous situation occurs in the region, that is, Ichon-dong, Seoul, merchant A can act as a safety agent in Ichon-dong, Seoul.

The supervisor terminal 70 may be a wireless and/or wired terminal used by a preset supervisor.

A supervisor may be a person who assesses the situation for a dangerous situation.

For example, a supervisor is a person who can sufficiently accurately grasp a dangerous situation, and various people such as police officers and firefighters can participate in it.

The server 20 may communicate with at least one camera module 10 , at least one safety officer terminal 60 , and at least one supervisor terminal 70 in a wired and/or wireless manner.

A flow of communication between the camera module 10, the server 20, the safety officer terminal 60, and the supervisor terminal 70 is schematically shown in FIG.

The server 20 may receive an image (setting image, surveillance image) captured by the camera module 10 from at least one camera module 10 and analyze the transmitted image using artificial intelligence.

Here, it is possible that the setting image and/or surveillance image is a moving image and/or a still image.

The server 20 may detect a dangerous situation by analyzing an image captured by the camera module 10 using artificial intelligence.

The server 20 may transmit a pointing control signal and/or an alarm control signal to the camera module 10 .

When a dangerous situation occurs, the server 20 may transmit information about the dangerous situation to at least one safety officer terminal 60 and/or at least one supervisor terminal 70 .

In addition, the server 20 transmits location information corresponding to the dangerous situation, for example, information on the location where the dangerous situation occurred and/or information about the location of the camera module 20 that captured the surveillance image in which the dangerous situation was detected to the safety personnel. It can be transmitted to the terminal 60 and/or the supervisor terminal 70.

Alternatively, the server 20 may transmit location information corresponding to a dangerous situation to the camera module 10 .

At least one safety personnel terminal 60 may transmit a corresponding image corresponding to a dangerous situation to the server 20 .

The server 20 transmits information requesting determination of a dangerous situation to at least one supervisor terminal 70, and in response to this, the supervisor terminal 70 transmits determination information for determining a dangerous situation to the server 20. it is possible

In addition, the server 20 may provide a predetermined reward to at least one safety officer terminal 60 and/or supervisor terminal 70 related to a dangerous situation.

Here, the reward may be a monetary reward, and a method of providing accumulated points may also be possible.

In addition, the server 20 may manage at least one camera module 10 , at least one safety officer terminal 60 , and/or at least one supervisor terminal 70 .

The image captured by the camera module 10 may include a setting image and a monitoring image.

The monitoring image may be an image captured by the camera module 10 to monitor whether a dangerous situation occurs in an area capable of being photographed, that is, a target area. For example, when monitoring whether a dangerous situation occurs along the Han River in Ichon-dong between aa:00 and bb on xx/xx, 20xx, the camera module 10 detects a dangerous situation between aa and bb on xx/xx, 20xx. The video taken can be a surveillance video.

The set image may be an image captured by the camera module 10 to detect a background in the target area.

The setting image is an image for setting the background and may be a sample image.

The server 20 may change (update) the background by periodically or non-periodically capturing at least one setting image.

4 and 5 are diagrams for explaining the setting mode. Hereinafter, description of the parts described in detail above may be omitted.

Referring to FIG. 4 , in a setting mode (S100), the camera module 10 may capture a target area to generate a setting image (S100).

The setting mode may be referred to as a mode for setting the camera module 10 .

Thereafter, the camera module 10 may transmit the generated setting image to the server 20 (S120).

For example, when the camera module 10 (or smart pole (SP)) is installed for the first time, an area where the camera module 10 can capture may not yet be clearly defined.

In this case, the camera module 10 may capture an image of the target area at a preset cycle for a preset period of time, and transmit the captured image (setting image) to the server 20 .

Then, the server 20 may detect the background by analyzing at least one set image transmitted from the camera module 10 using artificial intelligence (S130).

For example, the server 20 may analyze set images taken for one month at intervals of one minute and detect a portion where the amount of change in data for one month is less than a preset threshold amount of change.

Thereafter, the server 20 may determine and detect a portion where the data change amount is less than the threshold change amount, for example, a portion where the data change amount is substantially zero or sufficiently insignificant as a background.

The server 20 may more effectively and precisely detect the background through deep learning while repeatedly analyzing the image.

In addition, the server 20 may classify and set a region of interest (ROI) and a dangerous area (DA) in the detected background (S140).

In addition, the server 20 may further set a safety area (SA) in addition to the region of interest (ROI) and the danger region (DA) in the detected background corresponding to the target region.

Here, the danger area DA may be referred to as an area in which a dangerous situation may occur when a person enters. For example, a river such as a river, the sea, and the outside of a railing of a bridge may be set as the danger area DA.

The region of interest (ROI) can be said to be an area adjacent to the risk region (DA) and highly likely to move a person to the risk region (DA). For example, a part of a highland area of a river, an area in which a tetrapod is installed in the sea, and a pedestrian passage of a bridge may be set as a region of interest (ROI).

The safe area SA may be an area adjacent to the area of interest ROI and sufficiently far from the risk area DA.

For example, as shown in (A) of FIG. 5, let's assume a case where the camera module 10 captures an image of a predetermined riverside as a set image.

In this case, the server 20 sets the area corresponding to the water in the image as the risk area (DA), sets the high water site area in contact with the water as the area of interest (ROI), and sets a part far enough away from the water as the safe area. (SA).

Or, as shown in (B) of FIG. 5, let's assume a case where the camera module 10 captures an image of a predetermined breakwater as a set image.

In this case, the server 20 sets the area corresponding to water, that is, the sea, as the area of danger (DA) in the image, sets the area where the tetrapods are placed as the area of interest (ROI), and sets the area where the tetrapods are placed as the area of interest (ROI), and the tetrapods are not installed and the water is removed from the water. A sufficiently distant part may be set as the safe area (SA).

Here, the case of rivers and seas (breakwaters) is given as an example, but the camera module 10 (smart pole (SP)) according to the present invention is used in any place where a dangerous situation occurs, such as a bridge, a fishing ground, a seashore with high waves, a reservoir, etc. It may be possible to install

In addition, although FIG. 5 describes the case of setting all of the risk area (DA), the area of interest (ROI), and the safety area (SA) in the background of the target area, the present invention may not be limited thereto.

For example, while the risk area DA and the area of interest ROI are set in the background in some cases, the safe area SA may not be set. A narrow breakwater or a high suspension bridge may correspond to this.

In this way, when the background is divided into a safety area (SA), an area of interest (ROI), and a danger area (DA), the area of interest (ROI) and/or danger in the image captured by the camera module 10, that is, a surveillance image A dangerous situation can be detected by analyzing only the part corresponding to the area DA. Accordingly, it may be possible to quickly detect a dangerous situation by reducing the amount of data processing.

6 to 17 are diagrams for explaining a method for detecting a dangerous situation and contents related thereto. Hereinafter, description of the parts described in detail above may be omitted.

Referring to FIG. 6 , in the monitoring mode (S200), the camera module 10 may generate a monitoring image by capturing a target area (S210).

The surveillance mode may be referred to as a mode for monitoring whether a dangerous situation occurs in the target area.

Thereafter, the camera module 10 may transmit the generated monitoring image to the server 20 (S220).

Then, the server 20 may analyze the surveillance image using artificial intelligence (S230) to determine whether a dangerous situation is included in the surveillance image, that is, whether a dangerous situation occurs (S240).

The server 20 may store the monitoring image transmitted from the camera module 10 for a preset period of time.

The server 20 may analyze the received monitoring image to determine location information of the camera module 10 that transmits the monitoring image. For example, the server 20 may determine location information of the camera module 10 that has transmitted the surveillance image based on unique information such as a serial number of the camera module 10 stored in advance.

As a result of the determination in step S240, when a dangerous situation does not occur, a preset first function (Default 1) may be performed (S250).

Examples of the first function include a function to notify that a dangerous situation has not occurred, a function to continuously analyze surveillance images, and the like.

On the other hand, if a dangerous situation occurs as a result of the determination in step S240, the server 20 may generate a related image related to the dangerous situation (S2560) and store the generated related image (S270).

The server 20 may analyze the received monitoring image to determine location information of a place where a dangerous situation occurs in the monitoring image.

The related image may include an image including an object related to a dangerous situation.

For example, let's assume that a dangerous situation occurs for object A (person A) in a surveillance image taken at the Han Riverside in Ichon-dong between aa and bb on xx month xx, 20xx.

In this case, the server 20 may backtrack the object A in the surveillance image before aa on the xx month xx of the year 20xx by re-analyzing the stored surveillance image before aa:00 on the xx month xx day of the year 20xx.

Thereafter, the server 20 may extract an image including the back-tracked object A, set the extracted image as a related image, and store the extracted image.

Here, although the object is set as a person, the present invention may not be limited thereto. For example, it may be possible to set vehicles such as a bag held by a person, a bicycle driven by a person, a kickboard, or a car as objects.

In addition, the server 20 can store the location information corresponding to the dangerous situation together with the related images while storing the related images.

Location information corresponding to a dangerous situation may refer to location information about a location where a dangerous situation occurs.

Alternatively, the location information corresponding to the dangerous situation may also mean the location information of the camera module 10 (or smart pole (SP)) that captures the monitoring image in which the dangerous situation is detected.

A method of determining whether a dangerous situation occurs by analyzing a surveillance image in the server 20 will be described in more detail below.

As shown in FIG. 7 , the server 20 may analyze the surveillance image transmitted from the camera module 10 (S230) and detect an object (such as a person) from the surveillance image (S300).

Thereafter, the server 200 may determine the location of the detected object (301).

The position of the object may mean the position of the object in the target area or the position of the object in the background.

Thereafter, the server 20 determines whether the location of the object is included in the danger area DA (S302), and if the object is located in the danger area DA as a result of the determination, it is determined that a dangerous situation has occurred. It can (S303).

For example, in a situation where an object falls into water, the object may be located in the danger area DA. The server 20 may determine this case as a dangerous situation.

On the other hand, as a result of the determination in step S302, if the location of the object is not included in the danger area DA, it can be determined whether the object is located in the region of interest ROI adjacent to the danger area DA. (S304).

As a result of the determination in step S304, if the location of the object is not included in the danger area (DA), it corresponds to the case where the object is located in the safe area (SA). It can be determined that it is a situation (S305).

On the other hand, as a result of the determination in step S304, if the location of the object is included in the danger area DA, it can be determined whether the object moves from the ROI to the danger area DA (S306). ).

As a result of the determination in step S306, if the object moves from the region of interest (ROI) to the danger region (DA), the server 20 may determine that a dangerous situation has occurred (S303).

For example, the case where the object moves toward the river from the high water site and enters the river may correspond to the case where the object moves from the region of interest (ROI) to the danger region (DA). The server 20 may determine this case as a dangerous situation.

On the other hand, as a result of the determination in step S306, if the object does not move from the region of interest (ROI) to the danger region (DA), it is determined whether the object moves from the region of interest (ROI) to the safe region (SA). It can (S307).

As a result of the determination in step S307, when the object moves from the region of interest (ROI) to the safe region (SA), the server 20 may determine that the dangerous situation is not a safe situation (S305).

On the other hand, as a result of the determination in step S307, if the object does not move from the region of interest (ROI) to the safe region (SA), the server 20 determines whether the object is detected in the region of interest (ROI). It can (S308).

As a result of the determination in step S308, when an object is detected in the region of interest (ROI), step S302 may be performed.

On the other hand, as a result of the determination in step S308, if the object is not detected in the region of interest (ROI), the server 20 may determine that a dangerous situation has occurred (S303).

This case may correspond to a case where the object suddenly disappears without moving to the safe area SA in a situation where the object is located in the ROI.

In this case, there is a high possibility that a dangerous situation such as an object falling into water has occurred. Alternatively, it is highly likely that an accident occurred in which the object fell between the tetrapods while being located in the area where the tetrapods were installed.

The server 20 may detect the object by analyzing the surveillance image for each frame in order to determine that the object disappears.

In the monitoring image, when the object is located in the region of interest (ROI), the object disappears without moving to the safe region (SA) or disappears while the object moves from the region of interest (ROI) to the danger region (DA). In this case, the server 20 may determine that a dangerous situation has occurred.

Meanwhile, it is possible not to determine that a dangerous situation has occurred simply because the object is simply located in the dangerous area.

As shown in FIG. 8, when the object is located in the danger zone DA, the server 20 may determine whether the time the object is located in the danger zone DA exceeds a preset reference time. Yes (S310).

As a result of the determination in step S310, if the object is located in the danger area DA longer than the reference time, the server 20 may determine that a danger situation has occurred (S303).

For example, if the object remains submerged in the river for more than one hour, there is a high possibility that an abnormality will occur in the object.

On the other hand, as a result of the determination in step S310, if the time the object is located in the danger area DA is shorter than the reference time, the server 20 determines whether the object moves to another area, for example, the area of interest (ROI). It is possible to determine (S311).

As a result of determination in step S311, when the object moves to another area, step S304 may be performed.

On the other hand, as a result of the determination in step S311, if the object does not move to another area, it may be determined whether the object is detected in the surveillance image (S312).

As a result of the determination in step S312, when an object is detected, step S310 may be performed.

On the other hand, as a result of the determination in step S312, if the object is not detected, the server 20 may determine that a dangerous situation has occurred (S303).

This case may correspond to a case where the object suddenly disappears without moving to the region of interest (ROI) in a situation where the object is located in the danger region (DA).

In this case, it is highly likely that a dangerous situation such as the object being swept away by waves or currents has occurred. Alternatively, it is highly likely that the object is completely drowned in deep water and disappears from the danger area DA.

Meanwhile, it is possible to detect the occurrence of a dangerous situation by using the pose of the object.

As shown in FIG. 9, when the object is located in the danger area DA or the area of interest ROI, the server 20 may analyze the surveillance image to determine the pose of the object (S321). .

Thereafter, it may be determined whether the determined pose of the object matches a preset ideal pose (S322).

As a result of the determination in step S322, if the pose of the object does not match the ideal pose, a preset second function (Default 2) may be performed (S323).

Here, the second function may be capable of proceeding to step S301 of determining the location of the object or determining that the current state is a safe state.

On the other hand, as a result of the determination in step S322, if the pose of the object matches the ideal pose, the server 20 may determine that a dangerous situation has occurred (S303).

For example, in a state where an object is located in the region of interest (ROI) or the danger region (DA), a pose to fall, a pose to dive, a pose to throw another object such as a bag, another object (person) to the danger zone ( DA), in the case of taking a pushing pose or the like, the server 20 can determine that a dangerous situation has occurred.

The server 20 may accumulate various data and perform deep learning while determining a dangerous situation in the manner described above. Through this process, the server 20 can more quickly and accurately determine the occurrence of a dangerous situation.

Meanwhile, the server 20 may transmit information on the dangerous situation to at least one other terminal while storing related images and location information when a dangerous situation occurs. In this regard, referring to the accompanying drawings, it will be described as follows.

As shown in FIG. 10, the server 20 may transmit information requesting determination of a dangerous situation to at least one supervisor terminal 70 after storing related images and/or location information (S270) ( S400).

In order to determine the dangerous situation, the server 20 may transmit related information and location information corresponding to the dangerous situation to the supervisor terminal 70 together.

The supervisor terminal 70 may analyze the related image and location information in response to the decision request from the server 20 to determine the degree of risk for the dangerous situation (S410).

Thereafter, the supervisor terminal 70 may transmit information for determining the risk level of the dangerous situation, that is, determination information to the server 20 (S420).

For example, as a result of analyzing the surveillance image taken by the camera module 10 along the Han River in Ichon-dong between aa and bb on xx month xx in 20xx, the server 20 finds an object in the surveillance image Assume that a dangerous situation occurs for B (person B).

In this case, a related image may be generated corresponding to object B, and location information corresponding to a dangerous situation may be stored together with the related image.

In addition, the server 20 may transmit a related image and location information corresponding to the object B to at least one supervisor terminal 70 and request to determine a dangerous situation.

Here, the supervisor terminal 70 may analyze the related video and location information received from the server 20 to determine the degree of danger.

Supervisors using the supervisor terminal 70 may be formed from an expert group capable of quickly and accurately determining a dangerous situation.

In this way, when the server 20 detects the occurrence of a dangerous situation by analyzing the surveillance video using artificial intelligence, and transmits the related video and location information to the supervisor terminal 70 so that the supervisor determines the dangerous situation, Risk situations can be analyzed more precisely and accurately. Accordingly, it may be possible to more quickly and accurately cope with a dangerous situation.

Meanwhile, the server 20 may analyze the decision information received from the supervisor terminal 70 to determine whether the risk level of the dangerous situation exceeds a preset standard risk level (S430).

As a result of the determination in step S430, if the risk level of the corresponding dangerous situation does not exceed the standard risk level, a preset third function (Default 3) may be performed (S440).

Here, the third function may include, for example, a function of transmitting information indicating that the risk level of the corresponding dangerous situation is sufficiently low to the server 20 and a function of canceling a danger alert.

On the other hand, as a result of the determination in step S430, if the risk level of the dangerous situation exceeds the standard risk level, the server 20 determines that the dangerous situation is dangerous, and transmits information about it to at least one safety personnel terminal ( 60) to notify the dangerous situation (S450).

Information transmitted to the safety personnel terminal 60 may include a related image and location information corresponding to a dangerous situation.

For example, the server 20 may transmit a dangerous situation alarm message as shown in FIG. 11 to at least one safety officer terminal 60 .

Thereafter, at least one safety officer who has received the dangerous situation notification message can check the related video and location information and move to the location where the dangerous situation occurs.

Thereafter, the safety personnel terminal 60 may capture and transmit at least one image corresponding to a dangerous situation, that is, a corresponding image to the server 20 .

Then, the server 20 may determine whether or not a corresponding image is input from the safety personnel terminal 60, and store the corresponding image when the corresponding image is input (S480).

Thereafter, the server 20 may provide a predetermined reward to at least one safety officer terminal 60 having input the corresponding image (S490).

On the other hand, if the corresponding image is not input as a result of the determination in step S460, a preset fourth function (Default 4) may be performed (S470).

Here, the fourth function may include, for example, a function of transmitting a request to input a corresponding image to at least one safety officer terminal 60 .

For example, as a result of analyzing the surveillance image taken by the camera module 10 along the Han River in Ichon-dong between aa and bb on xx month xx in 20xx, the server 20 finds an object in the surveillance image Assume that a dangerous situation occurs for B (person B).

Here, the supervisor terminal 70 may transmit to the server 20 determination information determined that the risk level of the dangerous situation for the object B is lower than the reference risk level.

Then, the server 20 may transmit information that a dangerous situation has occurred with respect to the object B to at least one safety personnel terminal 60 based on the determination information received from the supervisor terminal 70 .

Here, the server 20 may transmit a monitoring image including the object B, that is, a related image and location information corresponding to a dangerous situation of the object B to at least one lifeguard terminal 60 . For example, information on the dangerous situation of the object B may be transmitted to the terminal 60 of at least one safety officer living in Ichon-dong or an area adjacent to Ichon-dong or associated with Ichon-dong.

To this end, the server 20 may collect and store location information of each safety personnel terminal 60 .

Upon receiving the information on the dangerous situation of object B, at least one safety officer may move to a location corresponding to the dangerous situation, that is, Ichon-dong.

Thereafter, at least one safety officer who has moved to Ichon-dong may take safety measures such as rescue of object B.

Thereafter, at least one safety officer who has taken a safety measure may photograph a video of the safety measure, that is, a corresponding video, and transmit the photographed corresponding video to the server 20 .

Then, the server 20 may reward the corresponding lifeguard terminal 60 in a manner such as monetary compensation or payment of accumulated points.

In this way, when the information on the dangerous situation is transmitted to at least one safety personnel terminal 60, it is possible to motivate the safety personnel to voluntarily intervene in the dangerous situation.

In addition, when a dangerous situation occurs, it is possible to receive help from a safety agent located nearby before the police, ambulance or rescue team arrives, so that rapid emergency response can be possible.

Meanwhile, in the above, it has been described that the supervisor terminal 70 and the safety officer terminal 60 are set separately, but the present invention may not be limited thereto.

For example, it is possible for a user registered in the server 20 to select by himself whether to perform a supervisory role or a safety officer role. In this regard, referring to the accompanying drawings, it will be described as follows.

Referring to FIG. 12 , at least one user terminal (UT) may access the server 20 (S500).

The user terminal UT connected to the server 20 may download and install a predetermined app for safety management from the server 20 (S510).

In addition, the user terminal UT may perform user registration by transmitting predetermined user information to the server 20 (S520).

The user terminal UT that has completed user registration may select a setting mode through the server 20 (S530).

For example, as shown in FIG. 13 , a menu for selecting whether to select a safety officer mode or a supervisor mode may be displayed on the user terminal UT.

Here, when the user selects the safety officer mode in the user terminal UT, the server 20 may set the corresponding user terminal UT as the safety officer terminal 60 .

On the other hand, when the user selects the supervisor mode in the user terminal UT, the server 20 may set the corresponding user terminal UT as the supervisor terminal 70 .

Thereafter, the user terminal UT may select a desired time zone (S540).

For example, user C registers as a user in the server 20 using his terminal, and then sets the desired time zone as a safety officer to 22:00 to 24:00 every Saturday in response to the safety officer mode, and in addition, Let's assume that in response to the supervisor mode, as a supervisor, you set the desired time zone every Friday between 22:00 and 24:00.

In this case, the server 20 can set the terminal of user C as the supervisor's terminal 70 every Friday from 22:00 to 24:00 and set it as a safety officer's terminal 60 from 22:00 to 24:00 every Saturday. .

Accordingly, the user C can use his terminal to act as a supervisor every Friday from 22:00 to 24:00, and to act as a safety agent from 22:00 to 24:00 every Saturday.

In this way, when the user registered in the server 20 is allowed to select the role of a safety officer or supervisor, it is possible to promote voluntary participation of the user.

On the other hand, the smart pole (SP) including the camera module 10 may include a pointing means for pointing to a location corresponding to a dangerous situation, that is, a location where a dangerous situation occurs. In this regard, referring to the accompanying drawings, it will be described as follows.

Referring to FIG. 14 , after the server 20 stores related images and location information (S270), a pointing control signal may be transmitted to the smart pole (SP) (S600).

Here, the pointing control signal may be a control signal for pointing to a location corresponding to a dangerous situation.

Then, the smart pole (SP) receiving the pointing control signal can activate the pointing part (S610).

Thereafter, the smart pole (SP) can point to a location corresponding to a dangerous situation using an activated pointing unit (S620).

In addition, the server 20 may transmit a notification control signal to the smart pole (SP) (S630).

The notification control signal may be a control signal for notifying the smart pole (SP) including the camera module 10 that has taken a monitoring image corresponding to a dangerous situation.

Then, the smart pole (SP) receiving the notification control signal activates a warning part, and the activated notification unit may output a notification (S640).

To this end, as shown in FIG. 15 , the smart pole (SP) may include a camera module 10, a notification unit 80, and a pointing unit 81 disposed on the pillar portion 50.

The notification unit 80 may include a warning light for emitting predetermined light.

When a notification control signal is transmitted from the server 20 to the smart pole SP, the smart pole SP can control the notification unit 80 to emit a predetermined light.

Then, it is possible to more easily and promptly notify the location of the dangerous situation to people who want to handle the dangerous situation, such as safety personnel.

The pointing unit 81 may include a pointing means such as a laser pointer capable of pointing using light such as a laser.

When a pointing control signal is transmitted from the server 20 to the smart pole SP, the smart pole SP controls the pointing unit 81 so that the pointing unit 81 moves the position OP corresponding to the dangerous situation to a predetermined level. It can be made to point with light.

To this end, the pointing control signal may include information about a location corresponding to a dangerous situation.

From another point of view, the server 20 can transmit location information corresponding to a dangerous situation, that is, location information about a place where a dangerous situation occurs, to a smart pole (SP) including a pointing unit 81 .

Here, the server 20 can be seen as analyzing the surveillance image to determine the location of a place where a dangerous situation occurs in the surveillance image, and transmitting the determined location information to the pointing unit 81 .

On the other hand, the camera module 10 of the smart pole (SP) includes a plurality of camera parts, and it is possible to acquire a wide area image (setting image, surveillance image, etc.) using a plurality of camera parts .

16 and 17, the pillar portion 50 has a vertical portion 51 having a form extending long in the vertical direction (DRV) and from the vertical portion 51 to the horizontal direction (Horizontal Direction, DRH). It may include an extending horizontal portion 52 .

In addition, the camera module 10 may be installed below the horizontal portion 52 .

Here, illustration of the notification unit 80 and the pointing unit 81 will be omitted.

The camera module 10 includes a first camera part (11) for capturing an image of a first target region and a second camera part (12) for capturing an image of a second target region. can include

In addition, the pointing unit 81 may include a first pointing unit 81a corresponding to the first camera unit 11 and a second pointing unit 81b corresponding to the second camera unit 12 .

The camera module 10 may be disposed on a lower surface of the lower portion of the horizontal portion 52 , and the first pointing unit 81a may be disposed on a side surface of the horizontal portion 52 corresponding to the first camera unit 11 . For example, the first pointing portion 81a may be disposed on a first side surface of the horizontal portion 52 .

In addition, the second pointing unit 81b may be disposed on the side of the horizontal unit 52 corresponding to the second camera unit 12 . For example, the second pointing portion 81b may be disposed on the second side surface of the horizontal portion 52 .

In this case, the first pointing unit 81a may point to a location corresponding to a dangerous situation detected from a monitoring image captured by the first camera unit 11 .

In addition, the second pointing unit 81b may point to a location corresponding to a dangerous situation detected from a monitoring image captured by the second camera unit 12 .

18 to 35 are diagrams for explaining a camera module. Hereinafter, description of the parts described in detail above may be omitted.

Hereinafter, the first direction (DR1) intersects (perpendicularly) with the second direction (DR2) and the third direction (DR3), and the second direction (DR2) is the third direction (DR3). ) and can intersect (perpendicularly).

Here, the first direction DR1, the second direction DR2, and the third direction DR3 are arbitrarily set for easy description of the camera module 10, and the present invention may not be limited thereto.

Referring to FIG. 18 , the camera module 10 according to the present invention may include a case part 30 , a frame part 40 and camera parts 11 and 12 .

The case portion 30 may form the exterior of the camera module 10 .

The frame part 40 may be disposed inside the case part 30 .

The frame unit 40 may provide a support base on which other components such as the camera units 11 and 12 may be placed.

The camera units 11 and 12 are disposed on the frame unit 40 within the case unit 30 and can capture surrounding images.

These camera units 11 and 12 may include a first camera unit 11 and a second camera unit 12 .

The first camera unit 11 may correspond to a first capturing area, that is, a first target area.

The second camera unit 12 may correspond to the second capturing area, that is, the second target area.

For example, when the camera units 11 and 12 are disposed on the pillar part 50 of the smart pole SP, the first camera part 11 corresponds to the left area of the pillar part 50, and the second The camera unit 12 may correspond to the right area of the pillar unit 50 .

From another point of view, the first camera unit 11 may capture a left area of the pillar unit 50 and the second camera unit 12 may capture a right area of the pillar unit 50 .

In addition, although not shown, the camera module 10 according to the present invention may further include a camera driver (not shown).

Referring to FIG. 19 , the case part 30 may include a bottom part 300, a middle part 310, and a cover part 320.

The bottom portion 300 may have a plate shape including a portion extending in the horizontal direction (first direction DR1 or second direction DR2).

The middle portion 310 may include a portion disposed on the bottom portion 300 and extending in a vertical direction (third direction DR3 ).

Although not shown, the middle part 310 may provide a space in which other components such as a camera driving unit (not shown) may be disposed.

The intermediate portion 310 may have a pipe shape with both sides open.

The cover part 320 may be connected to the upper part of the middle part 310 .

The frame unit 40 , the camera units 11 and 12 , and a camera driving unit (not shown) may be disposed in a space provided between the cover unit 320 and the bottom unit 300 .

In addition, in order for the cameras 11 and 12 to take pictures smoothly, the cover 320 may include a light-transmitting material and have a dome shape.

The cover part 320 may be transparent to some extent.

Referring to FIG. 20 , the first camera unit 11 may include a first lens part 11b and a first lens substrate part 11a.

The first lens unit 11b may be disposed on the first lens substrate unit 11a.

A first connector part 11c may be disposed on the first lens substrate 11a.

The first connector part 11c may be electrically connected to a first cable part 193 for transmitting image data photographed by the first lens part 11b to the camera driver 190. there is.

The second camera unit 12 may include a second lens part 12b and a second lens substrate part 12a.

The second lens unit 12b may be disposed on the second lens substrate unit 12a.

A second connector part 12c may be disposed on the second lens substrate 12a.

The second connector part 12c may be electrically connected to a second cable part 194 for transmitting image data photographed by the second lens part 12b to the camera driving part 190 .

The camera driving unit 190 may receive image data captured by the first lens unit 11b and/or the second lens unit 12b.

To this end, the camera driving unit 190 may include a third connector part 191 and a fourth connector part 192 .

The third connector unit 191 may be electrically connected to the first cable unit 193 and the fourth connector unit 192 may be electrically connected to the second cable unit 194 .

The camera driving unit 190 may generate a video image by processing the video data received from the first lens unit 11b and/or the second lens unit 12b.

The camera driving unit 190 may transmit the generated video image to the server.

To this end, although not shown, the camera driving unit 190 may include a first communication unit.

Referring to FIGS. 21 and 22 , the frame part 40 may include a base part 400 , a first supporting part 410 and a second supporting part 420 .

The base part 400 may provide a support base for the first support part 410 and the second support part 420 .

The first support part 410 corresponds to the first lens substrate part 11a and may be disposed on the base part 400 .

The second support part 420 corresponds to the second lens substrate part 12a and may be disposed on the base part 400 .

As shown in FIG. 22 , the base part 400 may include a first slope part 404 and a second slope part 405 .

The first inclined surface portion 404 may correspond to the first support portion 410 . That is, the first support part 410 may be disposed on the first inclined surface part 404 .

The second inclined surface portion 405 may correspond to the second support portion 420 . That is, the second support part 420 may be disposed on the second inclined surface part 405 .

Looking at the base part 400 in more detail as follows.

The base part 400 includes a horizontal part (401), a first vertical part (402), a second vertical part (403), a first inclined surface part (404) and a second inclined surface. may include section 405 .

The horizontal portion 401 may include a portion extending in a horizontal direction (first direction DR1 or second direction DR2).

Although not shown, the horizontal part 401 may be connected to the case part 30 . For example, the horizontal portion 401 may be connected to the bottom portion 300 and/or the middle portion 310 .

The first vertical portion 402 may extend in the third direction DR3 from one end of the horizontal portion 401 .

The second vertical portion 403 may extend in the third direction DR3 from the other end of the horizontal portion 401 .

The first inclined surface portion 404 may extend in an oblique direction from an end of the first vertical portion 402 .

The second inclined surface portion 405 may extend in an oblique direction from an end of the second vertical portion 403 .

Ends of the first inclined surface portion 404 and the second inclined surface portion 405 may be connected to each other.

A first support part 410 may be disposed on the first inclined surface part 404 .

A second support part 420 may be disposed on the second inclined surface part 405 .

The frame part 40 having this configuration may be connected to at least one of the bottom part 300 and the middle part 310 of the case part 30 .

For example, the horizontal portion 401 of the base portion 400 of the frame portion 40 may be connected to at least one of the bottom portion 300 and the middle portion 310 of the case portion 30 .

Referring to FIG. 23 , the base portion 400 of the frame portion 40 may include an opening (OP).

The opening OP may be positioned between the first inclined surface portion 404 and the second inclined surface portion 405 of the base portion 400 .

The opening OP may be a passage through which the first cable unit 193 and/or the second cable unit 194 pass.

Referring to FIG. 24 , the base portion 400 of the frame portion 40 may be divided into a first base portion 400a and a second base portion 400b.

The shape of the first base part 400a and the second base part 400b may be the same or sufficiently similar.

The first base part 400a includes a first horizontal part 401a, a 1-1 vertical part 402a, a 2-1 vertical part 403a, a 1-1 inclined surface part 404a, and a 2-1 An inclined surface portion 405a may be included.

The second base portion 400b includes a second horizontal portion 401b, a 1-2nd vertical portion 402b, a 2-2nd vertical portion 403b, a 1-2nd inclined surface portion 404b, and a 2-2nd vertical portion 403b. An inclined surface portion 405b may be included.

Comparing FIG. 24 with FIG. 22, the size of each part may be different, but the shape of the cross section may be the same or sufficiently similar.

Referring to FIG. 25, the first support part 410 is disposed on the 1-1 inclined surface part 404a of the first base part 400a and the 2-1 inclined surface part 404b of the second base part 400b. can

In addition, the second support part 420 may be disposed on the 1-2 inclined surface part 405a of the first base part 400a and the 2-2 inclined surface part 405b of the second base part 400b.

In this case, as shown in FIG. 26, an opening OP is provided between the divided first base part 400a and the second base part 400b, and the first cable part is opened through the opening OP. 193 and/or the second cable section 194 may pass through.

Referring to FIG. 26, the width W2 of the first inclined surface portion 404 (the 1-1 inclined surface portion 404a and/or the 1-2 inclined surface portion 404b) is the width of the first support portion 410 ( W1) may be greater.

In addition, the width of the second inclined surface portion 405 (the 2-1 inclined surface portion 405a and/or the 2-2 inclined surface portion 405b) may be greater than that of the second support portion 420 .

In this case, the first cable unit 193 and/or the second cable unit 194 may more easily pass through the opening OP.

In addition, a sufficient space for connecting the first cable unit 193 and/or the second cable unit 194 can be secured, so that the operation can be facilitated.

Referring to FIG. 27, the first support part 410 on the first inclined surface part 404 (the 1-1 inclined surface part 404a and/or the 1-2 inclined surface part 404b) is connected to the second support part 420. They can be placed far enough apart.

In detail, the first support portion 410 includes the first inclined surface portion 404 (the 1-1 inclined surface portion 404a and/or the 1-2-th inclined surface portion 404b) and the first vertical portion 402 (the 1st inclined surface portion 404a). It may be located adjacent to the connecting portion of the 1-1 vertical portion 402a and/or the 1-2 vertical portion 402b.

Accordingly, on the first inclined surface portion 404 (the 1-1 inclined surface portion 404a and/or the 1-2-th inclined surface portion 404b), the first support portion 410 and the first vertical portion 402 ( The distance W3 between the 1-1 vertical portion 402a and/or the 1-2 vertical portion 402 b is between the first support portion 410 and the second inclined surface portion 405 (the 2-1 inclined surface portion). (405a) and/or the 2-2 inclined surface portion (405b) may be smaller than the interval (W4).

Here, W3 may be substantially zero.

This configuration may be applied to the second support part 420 in the same or sufficiently similar manner.

In this case, a sufficient space may be secured between the first support part 410 and the second support part 420 .

Referring to FIG. 28 , the first camera unit 11 including the first lens unit 11b and the first lens substrate unit 11a may be disposed on the first support unit 410 .

In addition, the second camera unit 12 including the second lens unit 12b and the second lens substrate unit 12a may be disposed on the second support unit 420 .

In this way, when the first and second camera units 11 and 12 are installed on the first and second support units 410 and 420, the first and second camera units 11 and 12 can be more easily installed.

Referring to FIG. 29 , the first support part 410 may include a first recessed part HW1 formed by recessing a part of the side surface.

In the first support part 410 , the first recessed part HW1 may be formed on a side surface adjacent to the second support part 420 .

In addition, the second support part 420 may include a second recessed part HW2 formed by recessing a part of the side surface.

In the second support part 420 , the second recessed part HW2 may be formed on a side surface adjacent to the first support part 410 .

Accordingly, it is possible for the first recessed part HW1 and the second recessed part HW2 to face each other.

Referring to FIG. 30 , the first support part 410 may include a first seating part DeP1 formed by recessing a part of the front surface (FS).

The first seating portion DeP1 may be connected to the first recessed portion HW1.

The second support part 420 may include a second seating part DeP2 formed by recessing a part of the front surface FS.

The second seating part DeP2 may be connected to the second recessed part HW2.

Referring to FIG. 31 , the first camera unit 11 may be disposed on the first seating part DeP1 of the first support part 410 .

For example, the first lens substrate 11a of the first camera unit 11 is disposed on the first seating part DeP1 of the first support part 410, and a predetermined fastening means such as a screw (not shown) It is possible to be fixed by

The second camera unit 12 may be disposed on the second seating part DeP2 of the second support part 420 .

For example, the second lens substrate 12a of the second camera unit 12 is disposed on the second seating part DeP2 of the second support part 420, and a predetermined fastening means such as a screw (not shown) It is possible to be fixed by

Referring to FIG. 32 , in a state in which the first camera unit 11 is disposed on the first seating part DeP1 of the first support part 410, the first lens part 11b is larger than the first support part 410 by W5. may protrude further.

In addition, in a state where the second camera unit 12 is disposed on the second seating part DeP2 of the second support part 420, the second lens part 12b may protrude more than the second support part 420. .

In this case, not only can the first and second camera units 11 and 12 be sufficiently stably disposed, but also the first and second lens units 11a and 11b can capture images of the surroundings more easily.

Referring to FIG. 33, the base portion 400 includes a first base portion 400a and a second base portion 400b, and the first and second inclined surface portions 404 and 405 of the base portion 400 have a first , An example of a case in which two supporters 410 and 420 are disposed is shown.

Here, the first and second support parts 410 and 420 may include first and second recessed parts HW1 and HW2 and first and second seating parts DeP1 and DeP2.

An example of a case where the first cable unit 193 and the second cable unit 194 are connected in this state is shown in FIG. 34 .

Referring to FIG. 34 , the first cable unit 193 may electrically connect the third connector unit 191 of the camera driving unit 190 and the first camera unit 11 .

In addition, the second cable unit 194 may electrically connect the fourth connector unit 192 of the camera driving unit 190 and the second camera unit 12 .

A camera driving unit 190 may be disposed above the horizontal portion 401 of the base unit 400 .

Alternatively, when the base part 400 of the frame part 40 is divided into a first horizontal part 401a and a second horizontal part 401b, the camera driving unit 190 is divided into the first horizontal part 401a and the second horizontal part 401a. 2 may be arranged over the horizontal portion (401b).

An angle θ1 between the first inclined surface portion 404 and the second inclined surface portion 405 may be associated with an overlap of photographing areas of the first camera unit 11 and the second camera unit 12. .

Specifically, the direction the first lens unit 11b of the first camera unit 11 faces and the second camera unit ( Directions of the second lens unit 12b of 12) may be different from each other.

Here, the angle θ1 between the first inclined surface portion 404 and the second inclined surface portion 405 may be smaller than 180° (degrees). For example, the angle θ1 between the first inclined surface portion 404 and the second inclined surface portion 405 may be greater than or equal to 45° (degrees) and less than or equal to 135° (degrees).

35 shows an example of a shape of a cross section of the camera module 10 according to the present invention.

Referring to FIG. 35 , the first inclined surface portion 404 and the second inclined surface portion 405 of the frame portion 40 may protrude more than the intermediate portion 310 in a vertical direction (third direction DR3).

To this end, the first vertical portion 402 and the second vertical portion 403 of the frame portion 40 may include a portion extending further than the middle portion 310 in the vertical direction (third direction DR3). there is.

Accordingly, the first inclined surface portion 404 and the second inclined surface portion 405 of the frame portion 40 may not be covered by the intermediate portion 310 .

Because of this, the first camera unit 11 and the second camera unit 12 may also protrude more in the vertical direction (third direction DR3) than the middle unit 310 . In this case, it is possible to effectively capture images of the first camera unit 11 and the second camera unit 12 .

When the camera module 10 described in detail above is applied to the smart pole (SP), a wide area image can be obtained.

In addition, since it is not necessary to install a plurality of cameras in one smart pole (SP), the structure of the smart pole (SP) can be simplified.

As such, it will be understood that the technical configuration of the present invention described above can be implemented in other specific forms without changing the technical spirit or essential features of the present invention by those skilled in the art to which the present invention pertains.

Therefore, the embodiments described above should be understood as illustrative and not restrictive in all respects, and the scope of the present invention is indicated by the claims to be described later rather than the foregoing detailed description, and the meaning and scope of the claims And all changes or modified forms derived from the equivalent concept should be construed as being included in the scope of the present invention.

Claims (5)

A pillar part including a part extending in a vertical direction (Vertical Direction);
A camera module disposed on the column part; and
Server;
including,
The camera module
A preset target area is photographed to generate a monitoring image, and the generated monitoring image is transmitted to the server,
The server
Dangerous situation using a smart pole, characterized in that by analyzing the surveillance image received from the camera module to detect a dangerous situation, and to associate and store the detected image related to the dangerous situation and location information related to the dangerous situation. information processor. According to claim 1,
The camera module
Case Part;
a frame part disposed inside the case part;
a camera part disposed in the frame part within the case part and photographing the target area; and
a camera driver disposed within the case unit and electrically connected to the camera unit;
including,
the camera part
a first camera part corresponding to the first capturing area; and
a second camera part corresponding to the second capturing area;
including,
The first camera unit
a first lens part; and
a first lens substrate part on which the first lens unit is disposed;
including,
The second camera unit
a second lens part; and
a second lens substrate part on which the second lens unit is disposed;
including,
Danger situation information processing device using a smart pole, characterized in that the direction in which the first lens unit faces is different from the direction in which the second lens unit faces. According to claim 1,
The camera module captures the target area in a setting mode to generate a setting image, transmits the generated setting image to the server,
The server analyzes the set image to detect a background in the target area, sets an interest area and a danger area in the detected background, and when an object is located in the danger area in the surveillance image, the server detects the background in the target area. A dangerous situation information processing device using a smart pole, characterized in that it is determined that a dangerous situation has occurred. According to claim 1,
The server transmits information on the dangerous situation to at least one preset terminal. According to claim 1,
Dangerous situation information processing device using a smart pole, characterized in that it further comprises a pointing part for pointing to a location related to the dangerous situation.

Images